thermodynamiC ProPerties as a funCtion of temPerature
l. V. Gurvich, V. s. iorish, V. s. yungman, and o. V. dorofeeva
The thermodynamic properties C°
p
(T), S°(T), H°(T)-H°(T
r
),
-[G°(T)-H°(T
r
)]/T and formation properties ∆
f
H°(T), ∆
f
G°(T),
log K
f
°(T) are tabulated as functions of temperature in the range
298 .15 to 1500 K for 80 substances in the standard state .The ref-
erence temperature, T
r
, is equal to 298 .15 K . The standard state
pressure is taken as 1 bar (100,000 Pa) . The tables are presented
in the JANAF Thermochemical Tables format (Reference 2) . The
numerical data are extracted from IVTANTHERMO databases
except for C
2
H
4
O, C
3
H
6
O, C
6
H
6
, C
6
H
6
O, C
10
H
8
, and CH
5
N, which
are based upon TRC Tables . See the references for information on
standard states and other details .
references
1 . Gurvich, L . V ., Veyts, I . V ., and Alcock, C . B ., Eds ., Thermodynamic
Properties of Individual Substances, 4th ed., Hemisphere Publishing
Corp ., New York, 1989 .
2 . Chase, M . W ., et al ., JANAF Thermochemical Tables, 3rd ed., J. Phys.
Chem. Ref. Data, 14, Suppl . 1, 1985 .
No.
Formula
Name
State
1
Ar
Argon
g
2
Br
Bromine
g
3
Br
2
Dibromine
g
4
BrH
Hydrogen bromide
g
5
C
Carbon (graphite)
cr
6
C
Carbon (diamond)
cr
7
C
2
Dicarbon
g
8
C
3
Tricarbon
g
9
CO
Carbon oxide
g
10
CO
2
Carbon dioxide
g
11
CH
4
Methane
g
12
C
2
H
2
Acetylene
g
13
C
2
H
4
Ethylene
g
14
C
2
H
6
Ethane
g
15
C
3
H
6
Cyclopropane
g
16
C
3
H
8
Propane
g
17
C
6
H
6
Benzene
l
18
C
6
H
6
Benzene
g
19
C
10
H
8
Naphthalene
cr, l
20
C
10
H
8
Naphthalene
g
21
CH
2
O
Formaldehyde
g
22
CH
4
O
Methanol
g
23
C
2
H
4
O
Acetaldehyde
g
24
C
2
H
6
O
Ethanol
g
25
C
2
H
4
O
2
Acetic acid
g
26
C
3
H
6
O
Acetone
g
27
C
6
H
6
O
Phenol
g
28
CF
4
Carbon tetrafluoride
g
29
CHF
3
Trifluoromethane
g
30
CClF
3
Chlorotrifluoromethane
g
31
CCl
2
F
2
Dichlorodifluoromethane
g
32
CHClF
2
Chlorodifluoromethane
g
33
CH
5
N
Methylamine
g
34
Cl
Chlorine
g
35
Cl
2
Dichlorine
g
36
ClH
Hydrogen chloride
g
37
Cu
Copper
cr, l
38
Cu
Copper
g
39
CuO
Copper oxide
cr
40
Cu
2
O
Dicopper oxide
cr
41
CuCl
2
Copper dichloride
cr, l
No.
Formula
Name
State
42
CuCl
2
Copper dichloride
g
43
F
Fluorine
g
44
F
2
Difluorine
g
45
FH
Hydrogen fluoride
g
46
Ge
Germanium
cr, l
47
Ge
Germanium
g
48
GeO
2
Germanium dioxide
cr, l
49
GeCl
4
Germanium tetrachloride
g
50
H
Hydrogen
g
51
H
2
Dihydrogen
g
52
HO
Hydroxyl
g
53
H
2
O
Water
l
54
H
2
O
Water
g
55
I
Iodine
g
56
I
2
Diiodine
cr, l
57
I
2
Diiodine
g
58
IH
Hydrogen iodide
g
59
K
Potassium
cr, l
60
K
Potassium
g
61
K
2
O
Dipotassium oxide
cr, l
62
KOH
Potassium hydroxide
cr, l
63
KOH
Potassium hydroxide
g
64
KCl
Potassium chloride
cr, l
65
KCl
Potassium chloride
g
66
N
2
Dinitrogen
g
67
NO
Nitric oxide
g
68
NO
2
Nitrogen dioxide
g
69
NH
3
Ammonia
g
70
O
Oxygen
g
71
O
2
Dioxygen
g
72
S
Sulfur
cr, l
73
S
Sulfur
g
74
S
2
Disulfur
g
75
S
8
Octasulfur
g
76
SO
2
Sulfur dioxide
g
77
Si
Silicon
cr
78
Si
Silicon
g
79
SiO
2
Silicon dioxide
cr
80
SiCl
4
Silicon tetrachloride
g
Order of listing of Tables
5-43
487_S05.indb 43
3/14/06 2:39:00 PM
J/K
.
mol
kJ/mol
T/K
C°
p
S°
–(G°–H° (T
r
))/T
H°–H° (T
r
)
∆
f
H°
∆
f
G°
log K
f
1. ARGON Ar (g)
298 .15
20 .786
154 .845
154 .845
0 .000
0 .000
0 .000
0 .000
300
20 .786
154 .973
154 .845
0 .038
0 .000
0 .000
0 .000
400
20 .786
160 .953
155 .660
2 .117
0 .000
0 .000
0 .000
500
20 .786
165 .591
157 .200
4 .196
0 .000
0 .000
0 .000
600
20 .786
169 .381
158 .924
6 .274
0 .000
0 .000
0 .000
700
20 .786
172 .585
160 .653
8 .353
0 .000
0 .000
0 .000
800
20 .786
175 .361
162 .322
10 .431
0 .000
0 .000
0 .000
900
20 .786
177 .809
163 .909
12 .510
0 .000
0 .000
0 .000
1000
20 .786
179 .999
165 .410
14 .589
0 .000
0 .000
0 .000
1100
20 .786
181 .980
166 .828
16 .667
0 .000
0 .000
0 .000
1200
20 .786
183 .789
168 .167
18 .746
0 .000
0 .000
0 .000
1300
20 .786
185 .453
169 .434
20 .824
0 .000
0 .000
0 .000
1400
20 .786
186 .993
170 .634
22 .903
0 .000
0 .000
0 .000
1500
20 .786
188 .427
171 .773
24 .982
0 .000
0 .000
0 .000
2. BROMINE Br (g)
298 .15
20 .786
175 .017
175 .017
0 .000
111 .870
82 .379
–14 .432
300
20 .786
175 .146
175 .018
0 .038
111 .838
82 .196
–14 .311
400
20 .787
181 .126
175 .833
2 .117
96 .677
75 .460
–9 .854
500
20 .798
185 .765
177 .373
4 .196
96 .910
70 .129
–7 .326
600
20 .833
189 .559
179 .097
6 .277
97 .131
64 .752
–5 .637
700
20 .908
192 .776
180 .827
8 .364
97 .348
59 .338
–4 .428
800
21 .027
195 .575
182 .499
10 .461
97 .568
53 .893
–3 .519
900
21 .184
198 .061
184 .093
12 .571
97 .796
48 .420
–2 .810
1000
21 .365
200 .302
185 .604
14 .698
98 .036
42 .921
–2 .242
1100
21 .559
202 .347
187 .034
16 .844
98 .291
37 .397
–1 .776
1200
21 .752
204 .231
188 .390
19 .010
98 .560
31 .850
–1 .386
1300
21 .937
205 .980
189 .676
21 .195
98 .844
26 .279
–1 .056
1400
22 .107
207 .612
190 .900
23 .397
99 .141
20 .686
–0 .772
1500
22 .258
209 .142
192 .065
25 .615
99 .449
15 .072
–0 .525
3. DIBROMINE Br
2
(g)
298 .15
36 .057
245 .467
245 .467
0 .000
30 .910
3 .105
–0 .544
300
36 .074
245 .690
245 .468
0 .067
30 .836
2 .933
–0 .511
332 .25
36 .340
249 .387
245 .671
1 .235
pressure = 1 bar
400
36 .729
256 .169
246 .892
3 .711
0 .000
0 .000
0 .000
500
37 .082
264 .406
249 .600
7 .403
0 .000
0 .000
0 .000
600
37 .305
271 .188
252 .650
11 .123
0 .000
0 .000
0 .000
700
37 .464
276 .951
255 .720
14 .862
0 .000
0 .000
0 .000
800
37 .590
281 .962
258 .694
18 .615
0 .000
0 .000
0 .000
900
37 .697
286 .396
261 .530
22 .379
0 .000
0 .000
0 .000
1000
37 .793
290 .373
264 .219
26 .154
0 .000
0 .000
0 .000
1100
37 .883
293 .979
266 .763
29 .938
0 .000
0 .000
0 .000
1200
37 .970
297 .279
269 .170
33 .730
0 .000
0 .000
0 .000
1300
38 .060
300 .322
271 .451
37 .532
0 .000
0 .000
0 .000
1400
38 .158
303 .146
273 .615
41 .343
0 .000
0 .000
0 .000
1500
38 .264
305 .782
275 .673
45 .164
0 .000
0 .000
0 .000
4. HYDROGEN BROMIDE HBr (g)
298 .15
29 .141
198 .697
198 .697
0 .000
–36 .290
–53 .360
9 .348
300
29 .141
198 .878
198 .698
0 .054
–36 .333
–53 .466
9 .309
400
29 .220
207 .269
199 .842
2 .971
–52 .109
–55 .940
7 .305
500
29 .454
213 .811
202 .005
5 .903
–52 .484
–56 .854
5 .939
600
29 .872
219 .216
204 .436
8 .868
–52 .844
–57 .694
5 .023
700
30 .431
223 .861
206 .886
11 .882
–53 .168
–58 .476
4 .363
800
31 .063
227 .965
209 .269
14 .957
–53 .446
–59 .214
3 .866
900
31 .709
231 .661
211 .555
18 .095
–53 .677
–59 .921
3 .478
1000
32 .335
235 .035
213 .737
21 .298
–53 .864
–60 .604
3 .166
1100
32 .919
238 .145
215 .816
24 .561
–54 .012
–61 .271
2 .909
5-44
Thermodynamic Properties as a Function of Temperature
487_S05.indb 44
3/14/06 2:39:01 PM
J/K
.
mol
kJ/mol
T/K
C°
p
S°
–(G°–H° (T
r
))/T
H°–H° (T
r
)
∆
f
H°
∆
f
G°
log K
f
1200
33 .454
241 .032
217 .799
27 .880
–54 .129
–61 .925
2 .696
1300
33 .938
243 .729
219 .691
31 .250
–54 .220
–62 .571
2 .514
1400
34 .374
246 .261
221 .499
34 .666
–54 .291
–63 .211
2 .358
1500
34 .766
248 .646
223 .230
38 .123
–54 .348
–63 .846
2 .223
5. CARBON (GRAPHITE) C (cr; graphite)
298 .15
8 .536
5 .740
5 .740
0 .000
0 .000
0 .000
0 .000
300
8 .610
5 .793
5 .740
0 .016
0 .000
0 .000
0 .000
400
11 .974
8 .757
6 .122
1 .054
0 .000
0 .000
0 .000
500
14 .537
11 .715
6 .946
2 .385
0 .000
0 .000
0 .000
600
16 .607
14 .555
7 .979
3 .945
0 .000
0 .000
0 .000
700
18 .306
17 .247
9 .113
5 .694
0 .000
0 .000
0 .000
800
19 .699
19 .785
10 .290
7 .596
0 .000
0 .000
0 .000
900
20 .832
22 .173
11 .479
9 .625
0 .000
0 .000
0 .000
1000
21 .739
24 .417
12 .662
11 .755
0 .000
0 .000
0 .000
1100
22 .452
26 .524
13 .827
13 .966
0 .000
0 .000
0 .000
1200
23 .000
28 .502
14 .968
16 .240
0 .000
0 .000
0 .000
1300
23 .409
30 .360
16 .082
18 .562
0 .000
0 .000
0 .000
1400
23 .707
32 .106
17 .164
20 .918
0 .000
0 .000
0 .000
1500
23 .919
33 .749
18 .216
23 .300
0 .000
0 .000
0 .000
6. CARBON (DIAMOND) C (cr; diamond)
298 .15
6 .109
2 .362
2 .362
0 .000
1 .850
2 .857
–0 .501
300
6 .201
2 .400
2 .362
0 .011
1 .846
2 .863
–0 .499
400
10 .321
4 .783
2 .659
0 .850
1 .645
3 .235
–0 .422
500
13 .404
7 .431
3 .347
2 .042
1 .507
3 .649
–0 .381
600
15 .885
10 .102
4 .251
3 .511
1 .415
4 .087
–0 .356
700
17 .930
12 .709
5 .274
5 .205
1 .361
4 .537
–0 .339
800
19 .619
15 .217
6 .361
7 .085
1 .338
4 .993
–0 .326
900
21 .006
17 .611
7 .479
9 .118
1 .343
5 .450
–0 .316
1000
22 .129
19 .884
8 .607
11 .277
1 .372
5 .905
–0 .308
1100
23 .020
22 .037
9 .731
13 .536
1 .420
6 .356
–0 .302
1200
23 .709
24 .071
10 .842
15 .874
1 .484
6 .802
–0 .296
1300
24 .222
25 .990
11 .934
18 .272
1 .561
7 .242
–0 .291
1400
24 .585
27 .799
13 .003
20 .714
1 .646
7 .675
–0 .286
1500
24 .824
29 .504
14 .047
23 .185
1 .735
8 .103
–0 .282
7. DICARBON C
2
(g)
298 .15
43 .548
197 .095
197 .095
0 .000
830 .457
775 .116
–135 .795
300
43 .575
197 .365
197 .096
0 .081
830 .506
774 .772
–134 .898
400
42 .169
209 .809
198 .802
4 .403
832 .751
755 .833
–98 .700
500
39 .529
218 .924
201 .959
8 .483
834 .170
736 .423
–76 .933
600
37 .837
225 .966
205 .395
12 .342
834 .909
716 .795
–62 .402
700
36 .984
231 .726
208 .758
16 .078
835 .148
697 .085
–52 .016
800
36 .621
236 .637
211 .943
19 .755
835 .020
677 .366
–44 .227
900
36 .524
240 .943
214 .931
23 .411
834 .618
657 .681
–38 .170
1000
36 .569
244 .793
217 .728
27 .065
834 .012
638 .052
–33 .328
1100
36 .696
248 .284
220 .349
30 .728
833 .252
618 .492
–29 .369
1200
36 .874
251 .484
222 .812
34 .406
832 .383
599 .006
–26 .074
1300
37 .089
254 .444
225 .133
38 .104
831 .437
579 .596
–23 .288
1400
37 .329
257 .201
227 .326
41 .824
830 .445
560 .261
–20 .903
1500
37 .589
259 .785
229 .405
45 .570
829 .427
540 .997
–18 .839
8. TRICARBON C
3
(g)
298 .15
42 .202
237 .611
237 .611
0 .000
839 .958
774 .249
–135 .643
300
42 .218
237 .872
237 .611
0 .078
839 .989
773 .841
–134 .736
400
43 .383
250 .164
239 .280
4 .354
841 .149
751 .592
–98 .147
500
44 .883
260 .003
242 .471
8 .766
841 .570
729 .141
–76 .172
600
46 .406
268 .322
246 .104
13 .331
841 .453
706 .659
–61 .519
700
47 .796
275 .582
249 .807
18 .042
840 .919
684 .230
–51 .057
800
48 .997
282 .045
253 .440
22 .884
840 .053
661 .901
–43 .217
Thermodynamic Properties as a Function of Temperature
5-45
487_S05.indb 45
3/14/06 2:39:03 PM
J/K
.
mol
kJ/mol
T/K
C°
p
S°
–(G°–H° (T
r
))/T
H°–H° (T
r
)
∆
f
H°
∆
f
G°
log K
f
900
50 .006
287 .876
256 .948
27 .835
838 .919
639 .698
–37 .127
1000
50 .844
293 .189
260 .310
32 .879
837 .572
617 .633
–32 .261
1100
51 .535
298 .069
263 .524
37 .999
836 .059
595 .711
–28 .288
1200
52 .106
302 .578
266 .593
43 .182
834 .420
573 .933
–24 .982
1300
52 .579
306 .768
269 .524
48 .417
832 .690
552 .295
–22 .191
1400
52 .974
310 .679
272 .326
53 .695
830 .899
530 .793
–19 .804
1500
53 .307
314 .346
275 .006
59 .010
829 .068
509 .421
–17 .739
9. CARBON OXIDE CO (g)
298 .15
29 .141
197 .658
197 .658
0 .000
–110 .530
–137 .168
24 .031
300
29 .142
197 .838
197 .659
0 .054
–110 .519
–137 .333
23 .912
400
29 .340
206 .243
198 .803
2 .976
–110 .121
–146 .341
19 .110
500
29 .792
212 .834
200 .973
5 .930
–110 .027
–155 .412
16 .236
600
30 .440
218 .321
203 .419
8 .941
–110 .157
–164 .480
14 .319
700
31 .170
223 .067
205 .895
12 .021
–110 .453
–173 .513
12 .948
800
31 .898
227 .277
208 .309
15 .175
–110 .870
–182 .494
11 .915
900
32 .573
231 .074
210 .631
18 .399
–111 .378
–191 .417
11 .109
1000
33 .178
234 .538
212 .851
21 .687
–111 .952
–200 .281
10 .461
1100
33 .709
237 .726
214 .969
25 .032
–112 .573
–209 .084
9 .928
1200
34 .169
240 .679
216 .990
28 .426
–113 .228
–217 .829
9 .482
1300
34 .568
243 .430
218 .920
31 .864
–113 .904
–226 .518
9 .101
1400
34 .914
246 .005
220 .763
35 .338
–114 .594
–235 .155
8 .774
1500
35 .213
248 .424
222 .527
38 .845
–115 .291
–243 .742
8 .488
10. CARBON DIOXIDE CO
2
(g)
298 .15
37 .135
213 .783
213 .783
0 .000
–393 .510
–394 .373
69 .092
300
37 .220
214 .013
213 .784
0 .069
–393 .511
–394 .379
68 .667
400
41 .328
225 .305
215 .296
4 .004
–393 .586
–394 .656
51 .536
500
44 .627
234 .895
218 .280
8 .307
–393 .672
–394 .914
41 .256
600
47 .327
243 .278
221 .762
12 .909
–393 .791
–395 .152
34 .401
700
49 .569
250 .747
225 .379
17 .758
–393 .946
–395 .367
29 .502
800
51 .442
257 .492
228 .978
22 .811
–394 .133
–395 .558
25 .827
900
53 .008
263 .644
232 .493
28 .036
–394 .343
–395 .724
22 .967
1000
54 .320
269 .299
235 .895
33 .404
–394 .568
–395 .865
20 .678
1100
55 .423
274 .529
239 .172
38 .893
–394 .801
–395 .984
18 .803
1200
56 .354
279 .393
242 .324
44 .483
–395 .035
–396 .081
17 .241
1300
57 .144
283 .936
245 .352
50 .159
–395 .265
–396 .159
15 .918
1400
57 .818
288 .196
248 .261
55 .908
–395 .488
–396 .219
14 .783
1500
58 .397
292 .205
251 .059
61 .719
–395 .702
–396 .264
13 .799
11. METHANE CH
4
(g)
298 .15
35 .695
186 .369
186 .369
0 .000
–74 .600
–50 .530
8 .853
300
35 .765
186 .590
186 .370
0 .066
–74 .656
–50 .381
8 .772
400
40 .631
197 .501
187 .825
3 .871
–77 .703
–41 .827
5 .462
500
46 .627
207 .202
190 .744
8 .229
–80 .520
–32 .525
3 .398
600
52 .742
216 .246
194 .248
13 .199
–82 .969
–22 .690
1 .975
700
58 .603
224 .821
198 .008
18 .769
–85 .023
–12 .476
0 .931
800
64 .084
233 .008
201 .875
24 .907
–86 .693
–1 .993
0 .130
900
69 .137
240 .852
205 .773
31 .571
–88 .006
8 .677
–0 .504
1000
73 .746
248 .379
209 .660
38 .719
–88 .996
19 .475
–1 .017
1100
77 .919
255 .607
213 .511
46 .306
–89 .698
30 .358
–1 .442
1200
81 .682
262 .551
217 .310
54 .289
–90 .145
41 .294
–1 .797
1300
85 .067
269 .225
221 .048
62 .630
–90 .367
52 .258
–2 .100
1400
88 .112
275 .643
224 .720
71 .291
–90 .390
63 .231
–2 .359
1500
90 .856
281 .817
228 .322
80 .242
–90 .237
74 .200
–2 .584
12. ACETYLENE C
2
H
2
(g)
298 .15
44 .036
200 .927
200 .927
0 .000
227 .400
209 .879
–36 .769
300
44 .174
201 .199
200 .927
0 .082
227 .397
209 .770
–36 .524
400
50 .388
214 .814
202 .741
4 .829
227 .161
203 .928
–26 .630
500
54 .751
226 .552
206 .357
10 .097
226 .846
198 .154
–20 .701
5-46
Thermodynamic Properties as a Function of Temperature
487_S05.indb 46
3/14/06 2:39:05 PM
J/K
.
mol
kJ/mol
T/K
C°
p
S°
–(G°–H° (T
r
))/T
H°–H° (T
r
)
∆
f
H°
∆
f
G°
log K
f
600
58 .121
236 .842
210 .598
15 .747
226 .445
192 .452
–16 .754
700
60 .970
246 .021
215 .014
21 .704
225 .968
186 .823
–13 .941
800
63 .511
254 .331
219 .418
27 .931
225 .436
181 .267
–11 .835
900
65 .831
261 .947
223 .726
34 .399
224 .873
175 .779
–10 .202
1000
67 .960
268 .995
227 .905
41 .090
224 .300
170 .355
–8 .898
1100
69 .909
275 .565
231 .942
47 .985
223 .734
164 .988
–7 .835
1200
71 .686
281 .725
235 .837
55 .067
223 .189
159 .672
–6 .950
1300
73 .299
287 .528
239 .592
62 .317
222 .676
154 .400
–6 .204
1400
74 .758
293 .014
243 .214
69 .721
222 .203
149 .166
–5 .565
1500
76 .077
298 .218
246 .709
77 .264
221 .774
143 .964
–5 .013
13. ETHYLENE C
2
H
4
(g)
298 .15
42 .883
219 .316
219 .316
0 .000
52 .400
68 .358
–11 .976
300
43 .059
219 .582
219 .317
0 .079
52 .341
68 .457
–11 .919
400
53 .045
233 .327
221 .124
4 .881
49 .254
74 .302
–9 .703
500
62 .479
246 .198
224 .864
10 .667
46 .533
80 .887
–8 .450
600
70 .673
258 .332
229 .441
17 .335
44 .221
87 .982
–7 .659
700
77 .733
269 .770
234 .393
24 .764
42 .278
95 .434
–7 .121
800
83 .868
280 .559
239 .496
32 .851
40 .655
103 .142
–6 .734
900
89 .234
290 .754
244 .630
41 .512
39 .310
111 .036
–6 .444
1000
93 .939
300 .405
249 .730
50 .675
38 .205
119 .067
–6 .219
1100
98 .061
309 .556
254 .756
60 .280
37 .310
127 .198
–6 .040
1200
101 .670
318 .247
259 .688
70 .271
36 .596
135 .402
–5 .894
1300
104 .829
326 .512
264 .513
80 .599
36 .041
143 .660
–5 .772
1400
107 .594
334 .384
269 .225
91 .223
35 .623
151 .955
–5 .669
1500
110 .018
341 .892
273 .821
102 .107
35 .327
160 .275
–5 .581
14. ETHANE C
2
H
6
(g)
298 .15
52 .487
229 .161
229 .161
0 .000
–84 .000
–32 .015
5 .609
300
52 .711
229 .487
229 .162
0 .097
–84 .094
–31 .692
5 .518
400
65 .459
246 .378
231 .379
5 .999
–88 .988
–13 .473
1 .759
500
77 .941
262 .344
235 .989
13 .177
–93 .238
5 .912
–0 .618
600
89 .188
277 .568
241 .660
21 .545
–96 .779
26 .086
–2 .271
700
99 .136
292 .080
247 .835
30 .972
–99 .663
46 .800
–3 .492
800
107 .936
305 .904
254 .236
41 .334
–101 .963
67 .887
–4 .433
900
115 .709
319 .075
260 .715
52 .525
–103 .754
89 .231
–5 .179
1000
122 .552
331 .628
267 .183
64 .445
–105 .105
110 .750
–5 .785
1100
128 .553
343 .597
273 .590
77 .007
–106 .082
132 .385
–6 .286
1200
133 .804
355 .012
279 .904
90 .131
–106 .741
154 .096
–6 .708
1300
138 .391
365 .908
286 .103
103 .746
–107 .131
175 .850
–7 .066
1400
142 .399
376 .314
292 .178
117 .790
–107 .292
197 .625
–7 .373
1500
145 .905
386 .260
298 .121
132 .209
–107 .260
219 .404
–7 .640
15. CYCLOPROPANE C
3
H
6
(g)
298 .15
55 .571
237 .488
237 .488
0 .000
53 .300
104 .514
–18 .310
300
55 .941
237 .832
237 .489
0 .103
53 .195
104 .832
–18 .253
400
76 .052
256 .695
239 .924
6 .708
47 .967
122 .857
–16 .043
500
93 .859
275 .637
245 .177
15 .230
43 .730
142 .091
–14 .844
600
108 .542
294 .092
251 .801
25 .374
40 .405
162 .089
–14 .111
700
120 .682
311 .763
259 .115
36 .854
37 .825
182 .583
–13 .624
800
130 .910
328 .564
266 .755
49 .447
35 .854
203 .404
–13 .281
900
139 .658
344 .501
274 .516
62 .987
34 .384
224 .441
–13 .026
1000
147 .207
359 .616
282 .277
77 .339
33 .334
245 .618
–12 .830
1100
153 .749
373 .961
289 .965
92 .395
32 .640
266 .883
–12 .673
1200
159 .432
387 .588
297 .538
108 .060
32 .249
288 .197
–12 .545
1300
164 .378
400 .549
304 .967
124 .257
32 .119
309 .533
–12 .437
1400
168 .689
412 .892
312 .239
140 .915
32 .215
330 .870
–12 .345
1500
172 .453
424 .662
319 .344
157 .976
32 .507
352 .193
–12 .264
16. PROPANE C
3
H
8
(g)
298 .15
73 .597
270 .313
270 .313
0 .000
–103 .847
–23 .458
4 .110
Thermodynamic Properties as a Function of Temperature
5-47
487_S05.indb 47
3/14/06 2:39:07 PM
J/K
.
mol
kJ/mol
T/K
C°
p
S°
–(G°–H° (T
r
))/T
H°–H° (T
r
)
∆
f
H°
∆
f
G°
log K
f
300
73 .931
270 .769
270 .314
0 .136
–103 .972
–22 .959
3 .997
400
94 .014
294 .739
273 .447
8 .517
–110 .33
15 .029
–0 .657
500
112 .591
317 .768
280 .025
18 .872
–115 .658
34 .507
–3 .605
600
128 .700
339 .753
288 .162
30 .955
–119 .973
64 .961
–5 .655
700
142 .674
360 .668
297 .039
44 .540
–123 .384
96 .065
–7 .168
800
154 .766
380 .528
306 .245
59 .427
–126 .016
127 .603
–8 .331
900
165 .352
399 .381
315 .555
75 .444
–127 .982
159 .430
–9 .253
1000
174 .598
417 .293
324 .841
92 .452
–129 .380
191 .444
–10 .000
1100
182 .673
434 .321
334 .026
110 .325
–130 .296
223 .574
–10 .617
1200
189 .745
450 .526
343 .064
128 .954
–130 .802
255 .770
–11 .133
1300
195 .853
465 .961
351 .929
148 .241
–130 .961
287 .993
–11 .572
1400
201 .209
480 .675
360 .604
168 .100
–130 .829
320 .217
–11 .947
1500
205 .895
494 .721
369 .080
188 .460
–130 .445
352 .422
–12 .272
17. BENZENE C
6
H
6
(l)
298 .15
135 .950
173 .450
173 .450
0 .000
49 .080
124 .521
–21 .815
300
136 .312
174 .292
173 .453
.252
49 .077
124 .989
–21 .762
400
161 .793
216 .837
179 .082
15 .102
48 .978
150 .320
–19 .630
500
207 .599
257 .048
190 .639
33 .204
50 .330
175 .559
–18 .340
18. BENZENE C
6
H
6
(g)
298 .15
82 .430
269 .190
269 .190
0 .000
82 .880
129 .750
–22 .731
300
83 .020
269 .700
269 .190
0 .153
82 .780
130 .040
–22 .641
400
113 .510
297 .840
272 .823
10 .007
77 .780
146 .570
–19 .140
500
139 .340
326 .050
280 .658
22 .696
73 .740
164 .260
–17 .160
600
160 .090
353 .360
290 .517
37 .706
70 .490
182 .680
–15 .903
700
176 .790
379 .330
301 .360
54 .579
67 .910
201 .590
–15 .042
800
190 .460
403 .860
312 .658
72 .962
65 .910
220 .820
–14 .418
900
201 .840
426 .970
324 .084
92 .597
64 .410
240 .280
–13 .945
1000
211 .430
448 .740
335 .473
113 .267
63 .340
259 .890
–13 .575
1100
219 .580
469 .280
346 .710
134 .827
62 .620
277 .640
–13 .184
1200
226 .540
488 .690
357 .743
157 .137
62 .200
299 .320
–13 .029
1300
232 .520
507 .070
368 .534
180 .097
62 .000
319 .090
–12 .821
1400
237 .680
524 .490
379 .056
203 .607
61 .990
338 .870
–12 .643
1500
242 .140
541 .040
389 .302
227 .607
62 .110
358 .640
–12 .489
19. NAPHTHALENE C
10
H
8
(cr, l)
298 .15
165 .720
167 .390
167 .390
0 .000
78 .530
201 .585
–35 .316
300
167 .001
168 .419
167 .393
0 .308
78 .466
202 .349
–35 .232
353 .43
208 .722
198 .948
169 .833
10 .290
96 .099
224 .543
–33 .186
PHASE TRANSITION: ∆
trs
H = 18.980 kJ/mol, ∆
trs
S = 53.702 J/K
.
mol, cr–l
353 .43
217 .200
252 .650
169 .833
29 .270
96 .099
224 .543
–33 .186
400
241 .577
280 .916
181 .124
39 .917
96 .067
241 .475
–31 .533
470
276 .409
322 .712
199 .114
58 .091
97 .012
266 .859
–29 .658
20. NAPHTHALENE C
10
H
8
(g)
298 .15
131 .920
333 .150
333 .150
0 .000
150 .580
224 .100
–39 .260
300
132 .840
333 .970
333 .157
0 .244
150 .450
224 .560
–39 .098
400
180 .070
378 .800
338 .950
15 .940
144 .190
250 .270
–32 .681
500
219 .740
423 .400
351 .400
36 .000
139 .220
277 .340
–28 .973
600
251 .530
466 .380
367 .007
59 .624
135 .350
305 .330
–26 .581
700
277 .010
507 .140
384 .146
86 .096
132 .330
333 .950
–24 .919
800
297 .730
545 .520
401 .935
114 .868
130 .050
362 .920
–23 .696
900
314 .850
581 .610
419 .918
145 .523
128 .430
392 .150
–22 .759
1000
329 .170
615 .550
437 .806
177 .744
127 .510
421 .700
–22 .027
1100
341 .240
647 .500
455 .426
211 .281
127 .100
450 .630
–21 .398
1200
351 .500
677 .650
472 .707
245 .932
126 .960
480 .450
–20 .913
1300
360 .260
706 .130
489 .568
281 .531
127 .060
509 .770
–20 .482
1400
367 .780
733 .110
506 .009
317 .941
127 .390
539 .740
–20 .137
1500
374 .270
758 .720
522 .019
355 .051
127 .920
568 .940
–19 .812
5-48
Thermodynamic Properties as a Function of Temperature
487_S05.indb 48
3/14/06 2:39:09 PM
J/K
.
mol
kJ/mol
T/K
C°
p
S°
–(G°–H° (T
r
))/T
H°–H° (T
r
)
∆
f
H°
∆
f
G°
log K
f
21. FORMALDEHYDE H
2
CO (g)
298 .15
35 .387
218 .760
218 .760
0 .000
–108 .700
–102 .667
17 .987
300
35 .443
218 .979
218 .761
0 .066
–108 .731
–102 .630
17 .869
400
39 .240
229 .665
220 .192
3 .789
–110 .438
–100 .340
13 .103
500
43 .736
238 .900
223 .028
7 .936
–112 .073
–97 .623
10 .198
600
48 .181
247 .270
226 .381
12 .534
–113 .545
–94 .592
8 .235
700
52 .280
255 .011
229 .924
17 .560
–114 .833
–91 .328
6 .815
800
55 .941
262 .236
233 .517
22 .975
–115 .942
–87 .893
5 .739
900
59 .156
269 .014
237 .088
28 .734
–116 .889
–84 .328
4 .894
1000
61 .951
275 .395
240 .603
34 .792
–117 .696
–80 .666
4 .213
1100
64 .368
281 .416
244 .042
41 .111
–118 .382
–76 .929
3 .653
1200
66 .453
287 .108
247 .396
47 .655
–118 .966
–73 .134
3 .183
1300
68 .251
292 .500
250 .660
54 .392
–119 .463
–69 .294
2 .784
1400
69 .803
297 .616
253 .833
61 .297
–119 .887
–65 .418
2 .441
1500
71 .146
302 .479
256 .915
68 .346
–120 .249
–61 .514
2 .142
22. METHANOL CH
3
OH (g)
298 .15
44 .101
239 .865
239 .865
0 .000
–201 .000
–162 .298
28 .434
300
44 .219
240 .139
239 .866
0 .082
–201 .068
–162 .057
28 .216
400
51 .713
253 .845
241 .685
4 .864
–204 .622
–148 .509
19 .393
500
59 .800
266 .257
245 .374
10 .442
–207 .750
–134 .109
14 .010
600
67 .294
277 .835
249 .830
16 .803
–210 .387
–119 .125
10 .371
700
73 .958
288 .719
254 .616
23 .873
–212 .570
–103 .737
7 .741
800
79 .838
298 .987
259 .526
31 .569
–214 .350
–88 .063
5 .750
900
85 .025
308 .696
264 .455
39 .817
–215 .782
–72 .188
4 .190
1000
89 .597
317 .896
269 .343
48 .553
–216 .916
–56 .170
2 .934
1100
93 .624
326 .629
274 .158
57 .718
–217 .794
–40 .050
1 .902
1200
97 .165
334 .930
278 .879
67 .262
–218 .457
–23 .861
1 .039
1300
100 .277
342 .833
283 .497
77 .137
–218 .936
–7 .624
0 .306
1400
103 .014
350 .367
288 .007
87 .304
–219 .261
8 .644
–0 .322
1500
105 .422
357 .558
292 .405
97 .729
–219 .456
24 .930
–0 .868
23. ACETALDEHYDE C
2
H
4
O (g)
298 .15
55 .318
263 .840
263 .840
0 .000
–166 .190
–133 .010
23 .302
300
55 .510
264 .180
263 .837
0 .103
–166 .250
–132 .800
23 .122
400
66 .282
281 .620
266 .147
6 .189
–169 .530
–121 .130
15 .818
500
76 .675
297 .540
270 .850
13 .345
–172 .420
–108 .700
11 .356
600
85 .942
312 .360
276 .550
21 .486
–174 .870
–95 .720
8 .334
700
94 .035
326 .230
282 .667
30 .494
–176 .910
–82 .350
6 .145
800
101 .070
339 .260
288 .938
40 .258
–178 .570
–68 .730
4 .487
900
107 .190
351 .520
295 .189
50 .698
–179 .880
–54 .920
3 .187
1000
112 .490
363 .100
301 .431
61 .669
–180 .850
–40 .930
2 .138
1100
117 .080
374 .040
307 .537
73 .153
–181 .560
–27 .010
1 .283
1200
121 .060
384 .400
313 .512
85 .065
–182 .070
–12 .860
0 .560
1300
124 .500
394 .230
319 .350
97 .344
–182 .420
1 .240
–0 .050
1400
127 .490
403 .570
325 .031
109 .954
–182 .640
15 .470
–0 .577
1500
130 .090
412 .460
330 .571
122 .834
–182 .750
29 .580
–1 .030
24. ETHANOL C
2
H
5
OH (g)
298 .15
65 .652
281 .622
281 .622
0 .000
–234 .800
–167 .874
29 .410
300
65 .926
282 .029
281 .623
0 .122
–234 .897
–167 .458
29 .157
400
81 .169
303 .076
284 .390
7 .474
–239 .826
–144 .216
18 .832
500
95 .400
322 .750
290 .115
16 .318
–243 .940
–119 .820
12 .517
600
107 .656
341 .257
297 .112
26 .487
–247 .260
–94 .672
8 .242
700
118 .129
358 .659
304 .674
37 .790
–249 .895
–69 .023
5 .151
800
127 .171
375 .038
312 .456
50 .065
–251 .951
–43 .038
2 .810
900
135 .049
390 .482
320 .276
63 .185
–253 .515
–16 .825
0 .976
1000
141 .934
405 .075
328 .033
77 .042
–254 .662
9 .539
–0 .498
1100
147 .958
418 .892
335 .670
91 .543
–255 .454
36 .000
–1 .709
1200
153 .232
431 .997
343 .156
106 .609
–255 .947
62 .520
–2 .721
Thermodynamic Properties as a Function of Temperature
5-49
487_S05.indb 49
3/14/06 2:39:11 PM
J/K
.
mol
kJ/mol
T/K
C°
p
S°
–(G°–H° (T
r
))/T
H°–H° (T
r
)
∆
f
H°
∆
f
G°
log K
f
1300
157 .849
444 .448
350 .473
122 .168
–256 .184
89 .070
–3 .579
1400
161 .896
456 .298
357 .612
138 .160
–256 .206
115 .630
–4 .314
1500
165 .447
467 .591
364 .571
154 .531
–256 .044
142 .185
–4 .951
25. ACETIC ACID C
2
H
4
O
2
(g)
298 .15
63 .438
283 .470
283 .470
0 .000
–432 .249
–374 .254
65 .567
300
63 .739
283 .863
283 .471
0 .118
–432 .324
–373 .893
65 .100
400
79 .665
304 .404
286 .164
7 .296
–436 .006
–353 .840
46 .206
500
93 .926
323 .751
291 .765
15 .993
–438 .875
–332 .950
34 .783
600
106 .181
341 .988
298 .631
26 .014
–440 .993
–311 .554
27 .123
700
116 .627
359 .162
306 .064
37 .169
–442 .466
–289 .856
21 .629
800
125 .501
375 .331
313 .722
49 .287
–443 .395
–267 .985
17 .497
900
132 .989
390 .558
321 .422
62 .223
–443 .873
–246 .026
14 .279
1000
139 .257
404 .904
329 .060
75 .844
–443 .982
–224 .034
11 .702
1100
144 .462
418 .429
336 .576
90 .039
–443 .798
–202 .046
9 .594
1200
148 .760
431 .189
343 .933
104 .707
–443 .385
–180 .086
7 .839
1300
152 .302
443 .240
351 .113
119 .765
–442 .795
–158 .167
6 .355
1400
155 .220
454 .637
358 .105
135 .146
–442 .071
–136 .299
5 .085
1500
157 .631
465 .432
364 .903
150 .793
–441 .247
–114 .486
3 .987
26. ACETONE C
3
H
6
O (g)
298 .15
74 .517
295 .349
295 .349
0 .000
–217 .150
–152 .716
26 .757
300
74 .810
295 .809
295 .349
0 .138
–217 .233
–152 .339
26 .521
400
91 .755
319 .658
298 .498
8 .464
–222 .212
–129 .913
16 .962
500
107 .864
341 .916
304 .988
18 .464
–226 .522
–106 .315
11 .107
600
122 .047
362 .836
312 .873
29 .978
–230 .120
–81 .923
7 .133
700
134 .306
382 .627
321 .470
42 .810
–233 .049
–56 .986
4 .252
800
144 .934
401 .246
330 .265
56 .785
–235 .350
–31 .673
2 .068
900
154 .097
418 .860
339 .141
71 .747
–237 .149
–6 .109
0 .353
1000
162 .046
435 .513
347 .950
87 .563
–238 .404
19 .707
–1 .030
1100
168 .908
451 .286
356 .617
104 .136
–239 .283
45 .396
–2 .157
1200
174 .891
466 .265
365 .155
121 .332
–239 .827
71 .463
–3 .110
1300
180 .079
480 .491
373 .513
139 .072
–240 .120
97 .362
–3 .912
1400
184 .556
493 .963
381 .596
157 .314
–240 .203
123 .470
–4 .607
1500
188 .447
506 .850
389 .533
175 .975
–240 .120
149 .369
–5 .202
27. PHENOL C
6
H
6
O (g)
298 .15
103 .220
314 .810
314 .810
0 .000
–96 .400
–32 .630
5 .720
300
103 .860
315 .450
314 .810
0 .192
–96 .490
–32 .230
5 .610
400
135 .790
349 .820
319 .278
12 .217
–100 .870
–10 .180
1 .330
500
161 .910
383 .040
328 .736
27 .152
–104 .240
12 .970
–1 .360
600
182 .480
414 .450
340 .430
44 .412
–106 .810
36 .650
–3 .190
700
198 .840
443 .860
353 .134
63 .508
–108 .800
60 .750
–4 .530
800
212 .140
471 .310
366 .211
84 .079
–110 .300
85 .020
–5 .550
900
223 .190
496 .950
379 .327
105 .861
–111 .370
109 .590
–6 .360
1000
232 .490
520 .960
392 .302
128 .658
–111 .990
134 .280
–7 .010
1100
240 .410
543 .500
405 .033
152 .314
–112 .280
158 .620
–7 .530
1200
247 .200
564 .720
417 .468
176 .703
–112 .390
183 .350
–7 .980
1300
253 .060
584 .740
429 .568
201 .723
–112 .330
208 .070
–8 .360
1400
258 .120
603 .680
441 .331
227 .288
–112 .120
233 .050
–8 .700
1500
262 .520
621 .650
452 .767
253 .325
–111 .780
257 .540
–8 .970
28. CARBON TETRAFLUORIDE CF
4
(g)
298 .15
61 .050
261 .455
261 .455
0 .000
–933 .200
–888 .518
155 .663
300
61 .284
261 .833
261 .456
0 .113
–933 .219
–888 .240
154 .654
400
72 .399
281 .057
264 .001
6 .822
–933 .986
–873 .120
114 .016
500
80 .713
298 .153
269 .155
14 .499
–934 .372
–857 .852
89 .618
600
86 .783
313 .434
275 .284
22 .890
–934 .490
–842 .533
73 .348
700
91 .212
327 .162
281 .732
31 .801
–934 .431
–827 .210
61 .726
800
94 .479
339 .566
288 .199
41 .094
–934 .261
–811 .903
53 .011
900
96 .929
350 .842
294 .542
50 .670
–934 .024
–796 .622
46 .234
5-50
Thermodynamic Properties as a Function of Temperature
487_S05.indb 50
3/14/06 2:39:13 PM
J/K
.
mol
kJ/mol
T/K
C°
p
S°
–(G°–H° (T
r
))/T
H°–H° (T
r
)
∆
f
H°
∆
f
G°
log K
f
1000
98 .798
361 .156
300 .695
60 .460
–933 .745
–781 .369
40 .814
1100
100 .250
370 .643
306 .629
70 .416
–933 .442
–766 .146
36 .381
1200
101 .396
379 .417
312 .334
80 .500
–933 .125
–750 .952
32 .688
1300
102 .314
387 .571
317 .811
90 .687
–932 .800
–735 .784
29 .564
1400
103 .059
395 .181
323 .069
100 .957
–932 .470
–720 .641
26 .887
1500
103 .671
402 .313
328 .116
111 .295
–932 .137
–705 .522
24 .568
29. TRIFLUOROMETHANE CHF
3
(g)
298 .15
51 .069
259 .675
259 .675
0 .000
–696 .700
–662 .237
116 .020
300
51 .258
259 .991
259 .676
0 .095
–696 .735
–662 .023
115 .267
400
61 .148
276 .113
261 .807
5 .722
–698 .427
–650 .186
84 .905
500
69 .631
290 .700
266 .149
12 .275
–699 .715
–637 .969
66 .647
600
76 .453
304 .022
271 .368
19 .593
–700 .634
–625 .528
54 .456
700
81 .868
316 .230
276 .917
27 .519
–701 .253
–612 .957
45 .739
800
86 .201
327 .455
282 .542
35 .930
–701 .636
–600 .315
39 .196
900
89 .719
337 .818
288 .116
44 .732
–701 .832
–587 .636
34 .105
1000
92 .617
347 .426
293 .572
53 .854
–701 .879
–574 .944
30 .032
1100
95 .038
356 .370
298 .879
63 .240
–701 .805
–562 .253
26 .699
1200
97 .084
364 .730
304 .022
72 .849
–701 .629
–549 .574
23 .922
1300
98 .833
372 .571
308 .997
82 .647
–701 .368
–536 .913
21 .573
1400
100 .344
379 .952
313 .804
92 .607
–701 .033
–524 .274
19 .561
1500
101 .660
386 .921
318 .449
102 .709
–700 .635
–511 .662
17 .817
30. CHLOROTRIFLUOROMETHANE CClF
3
(g)
298 .15
66 .886
285 .419
285 .419
0 .000
–707 .800
–667 .238
116 .896
300
67 .111
285 .834
285 .421
0 .124
–707 .810
–666 .986
116 .131
400
77 .528
306 .646
288 .187
7 .383
–708 .153
–653 .316
85 .313
500
85 .013
324 .797
293 .734
15 .532
–708 .170
–639 .599
66 .818
600
90 .329
340 .794
300 .271
24 .314
–707 .975
–625 .901
54 .489
700
94 .132
355 .020
307 .096
33 .547
–707 .654
–612 .246
45 .686
800
96 .899
367 .780
313 .897
43 .106
–707 .264
–598 .642
39 .087
900
98 .951
379 .317
320 .536
52 .903
–706 .837
–585 .090
33 .957
1000
100 .507
389 .827
326 .947
62 .880
–706 .396
–571 .586
29 .856
1100
101 .708
399 .465
333 .108
72 .993
–705 .950
–558 .126
26 .503
1200
102 .651
408 .357
339 .013
83 .213
–705 .505
–544 .707
23 .710
1300
103 .404
416 .604
344 .668
93 .517
–705 .064
–531 .326
21 .349
1400
104 .012
424 .290
350 .084
103 .889
–704 .628
–517 .977
19 .326
1500
104 .512
431 .484
355 .273
114 .316
–704 .196
–504 .660
17 .574
31. DICHLORODIFLUOROMETHANE CCl
2
F
2
(g)
298 .15
72 .476
300 .903
300 .903
0 .000
–486 .000
–447 .030
78 .317
300
72 .691
301 .352
300 .905
0 .134
–486 .002
–446 .788
77 .792
400
82 .408
323 .682
303 .883
7 .919
–485 .945
–433 .716
56 .637
500
89 .063
342 .833
309 .804
16 .514
–485 .618
–420 .692
43 .949
600
93 .635
359 .500
316 .729
25 .663
–485 .136
–407 .751
35 .497
700
96 .832
374 .189
323 .909
35 .196
–484 .576
–394 .897
29 .467
800
99 .121
387 .276
331 .027
44 .999
–483 .984
–382 .126
24 .950
900
100 .801
399 .053
337 .942
55 .000
–483 .388
–369 .429
21 .441
1000
102 .062
409 .742
344 .596
65 .146
–482 .800
–356 .799
18 .637
1100
103 .030
419 .517
350 .969
75 .402
–482 .226
–344 .227
16 .346
1200
103 .786
428 .515
357 .061
85 .745
–481 .667
–331 .706
14 .439
1300
104 .388
436 .847
362 .882
96 .154
–481 .121
–319 .232
12 .827
1400
104 .874
444 .602
368 .445
106 .618
–480 .588
–306 .799
11 .447
1500
105 .270
451 .851
373 .767
117 .126
–480 .065
–294 .404
10 .252
32. CHLORODIFLUOROMETHANE CHClF
2
(g)
298 .15
55 .853
280 .915
280 .915
0 .000
–475 .000
–443 .845
77 .759
300
56 .039
281 .261
280 .916
0 .104
–475 .028
–443 .652
77 .246
400
65 .395
298 .701
283 .231
6 .188
–476 .390
–432 .978
56 .540
500
73 .008
314 .145
287 .898
13 .123
–477 .398
–422 .001
44 .086
600
78 .940
328 .003
293 .448
20 .733
–478 .103
–410 .851
35 .767
Thermodynamic Properties as a Function of Temperature
5-51
487_S05.indb 51
3/14/06 2:39:15 PM
J/K
.
mol
kJ/mol
T/K
C°
p
S°
–(G°–H° (T
r
))/T
H°–H° (T
r
)
∆
f
H°
∆
f
G°
log K
f
700
83 .551
340 .533
299 .294
28 .867
–478 .574
–399 .603
29 .818
800
87 .185
351 .936
305 .172
37 .411
–478 .870
–388 .299
25 .353
900
90 .100
362 .379
310 .956
46 .280
–479 .031
–376 .967
21 .878
1000
92 .475
371 .999
316 .586
55 .413
–479 .090
–365 .622
19 .098
1100
94 .433
380 .908
322 .033
64 .761
–479 .068
–354 .276
16 .823
1200
96 .066
389 .196
327 .289
74 .289
–478 .982
–342 .935
14 .927
1300
97 .438
396 .941
332 .352
83 .966
–478 .843
–331 .603
13 .324
1400
98 .601
404 .206
337 .228
93 .769
–478 .661
–320 .283
11 .950
1500
99 .593
411 .044
341 .923
103 .681
–478 .443
–308 .978
10 .759
33. METHYLAMINE CH
5
N (g)
298 .15
50 .053
242 .881
242 .881
0 .000
–22 .529
32 .734
–5 .735
300
50 .227
243 .196
242 .893
0 .091
–22 .614
33 .077
–5 .759
400
60 .171
258 .986
244 .975
5 .604
–26 .846
52 .294
–6 .829
500
70 .057
273 .486
249 .244
12 .121
–30 .431
72 .510
–7 .575
600
78 .929
287 .063
254 .431
19 .579
–33 .364
93 .382
–8 .129
700
86 .711
299 .826
260 .008
27 .873
–35 .712
114 .702
–8 .559
800
93 .545
311 .865
265 .749
36 .893
–37 .548
136 .316
–8 .900
900
99 .573
323 .239
271 .511
46 .555
–38 .949
158 .138
–9 .178
1000
104 .886
334 .006
277 .220
56 .786
–39 .967
180 .098
–9 .407
1100
109 .576
344 .233
282 .861
67 .509
–40 .681
201 .822
–9 .584
1200
113 .708
353 .944
288 .374
78 .685
–41 .136
224 .240
–9 .761
1300
117 .341
363 .190
293 .775
90 .239
–41 .376
246 .364
–9 .899
1400
120 .542
372 .012
299 .061
102 .131
–41 .451
268 .504
–10 .018
1500
123 .353
380 .426
304 .209
114 .326
–41 .381
290 .639
–10 .121
34. CHLORINE Cl (g)
298 .15
21 .838
165 .190
165 .190
0 .000
121 .302
105 .306
–18 .449
300
21 .852
165 .325
165 .190
0 .040
121 .311
105 .207
–18 .318
400
22 .467
171 .703
166 .055
2 .259
121 .795
99 .766
–13 .028
500
22 .744
176 .752
167 .708
4 .522
122 .272
94 .203
–9 .841
600
22 .781
180 .905
169 .571
6 .800
122 .734
88 .546
–7 .709
700
22 .692
184 .411
171 .448
9 .074
123 .172
82 .813
–6 .179
800
22 .549
187 .432
173 .261
11 .337
123 .585
77 .019
–5 .029
900
22 .389
190 .079
174 .986
13 .584
123 .971
71 .175
–4 .131
1000
22 .233
192 .430
176 .615
15 .815
124 .334
65 .289
–3 .410
1100
22 .089
194 .542
178 .150
18 .031
124 .675
59 .368
–2 .819
1200
21 .959
196 .458
179 .597
20 .233
124 .996
53 .416
–2 .325
1300
21 .843
198 .211
180 .963
22 .423
125 .299
47 .439
–1 .906
1400
21 .742
199 .826
182 .253
24 .602
125 .587
41 .439
–1 .546
1500
21 .652
201 .323
183 .475
26 .772
125 .861
35 .418
–1 .233
35. DICHLORINE Cl
2
(g)
298 .15
33 .949
223 .079
223 .079
0 .000
0 .000
0 .000
0 .000
300
33 .981
223 .290
223 .080
0 .063
0 .000
0 .000
0 .000
400
35 .296
233 .263
224 .431
3 .533
0 .000
0 .000
0 .000
500
36 .064
241 .229
227 .021
7 .104
0 .000
0 .000
0 .000
600
36 .547
247 .850
229 .956
10 .736
0 .000
0 .000
0 .000
700
36 .874
253 .510
232 .926
14 .408
0 .000
0 .000
0 .000
800
37 .111
258 .450
235 .815
18 .108
0 .000
0 .000
0 .000
900
37 .294
262 .832
238 .578
21 .829
0 .000
0 .000
0 .000
1000
37 .442
266 .769
241 .203
25 .566
0 .000
0 .000
0 .000
1100
37 .567
270 .343
243 .692
29 .316
0 .000
0 .000
0 .000
1200
37 .678
273 .617
246 .052
33 .079
0 .000
0 .000
0 .000
1300
37 .778
276 .637
248 .290
36 .851
0 .000
0 .000
0 .000
1400
37 .872
279 .440
250 .416
40 .634
0 .000
0 .000
0 .000
1500
37 .961
282 .056
252 .439
44 .426
0 .000
0 .000
0 .000
36. HYDROGEN CHLORIDE HCl (g)
298 .15
29 .136
186 .902
186 .902
0 .000
–92 .310
–95 .298
16 .696
300
29 .137
187 .082
186 .902
0 .054
–92 .314
–95 .317
16 .596
5-52
Thermodynamic Properties as a Function of Temperature
487_S05.indb 52
3/14/06 2:39:17 PM
J/K
.
mol
kJ/mol
T/K
C°
p
S°
–(G°–H° (T
r
))/T
H°–H° (T
r
)
∆
f
H°
∆
f
G°
log K
f
400
29 .175
195 .468
188 .045
2 .969
–92 .587
–96 .278
12 .573
500
29 .304
201 .990
190 .206
5 .892
–92 .911
–97 .164
10 .151
600
29 .576
207 .354
192 .630
8 .835
–93 .249
–97 .983
8 .530
700
29 .988
211 .943
195 .069
11 .812
–93 .577
–98 .746
7 .368
800
30 .500
215 .980
197 .435
14 .836
–93 .879
–99 .464
6 .494
900
31 .063
219 .604
199 .700
17 .913
–94 .149
–100 .145
5 .812
1000
31 .639
222 .907
201 .858
21 .049
–94 .384
–100 .798
5 .265
1100
32 .201
225 .949
203 .912
24 .241
–94 .587
–101 .430
4 .816
1200
32 .734
228 .774
205 .867
27 .488
–94 .760
–102 .044
4 .442
1300
33 .229
231 .414
207 .732
30 .786
–94 .908
–102 .645
4 .124
1400
33 .684
233 .893
209 .513
34 .132
–95 .035
–103 .235
3 .852
1500
34 .100
236 .232
211 .217
37 .522
–95 .146
–103 .817
3 .615
37. COPPER Cu (cr, l)
298 .15
24 .440
33 .150
33 .150
0 .000
0 .000
0 .000
0 .000
300
24 .460
33 .301
33 .150
0 .045
0 .000
0 .000
0 .000
400
25 .339
40 .467
34 .122
2 .538
0 .000
0 .000
0 .000
500
25 .966
46 .192
35 .982
5 .105
0 .000
0 .000
0 .000
600
26 .479
50 .973
38 .093
7 .728
0 .000
0 .000
0 .000
700
26 .953
55 .090
40 .234
10 .399
0 .000
0 .000
0 .000
800
27 .448
58 .721
42 .322
13 .119
0 .000
0 .000
0 .000
900
28 .014
61 .986
44 .328
15 .891
0 .000
0 .000
0 .000
1000
28 .700
64 .971
46 .245
18 .726
0 .000
0 .000
0 .000
1100
29 .553
67 .745
48 .075
21 .637
0 .000
0 .000
0 .000
1200
30 .617
70 .361
49 .824
24 .644
0 .000
0 .000
0 .000
1300
31 .940
72 .862
51 .501
27 .769
0 .000
0 .000
0 .000
1358
32 .844
74 .275
52 .443
29 .647
0 .000
0 .000
0 .000
PHASE TRANSITION: ∆
trs
H = 13.141 kJ/mol, ∆
trs
S = 9.676 J/K⋅mol, cr–l
1358
32 .800
83 .951
52 .443
42 .788
0 .000
0 .000
0 .000
1400
32 .800
84 .950
53 .403
44 .166
0 .000
0 .000
0 .000
1500
32 .800
87 .213
55 .583
47 .446
0 .000
0 .000
0 .000
38. COPPER Cu (g)
298 .15
20 .786
166 .397
166 .397
0 .000
337 .600
297 .873
–52 .185
300
20 .786
166 .525
166 .397
0 .038
337 .594
297 .626
–51 .821
400
20 .786
172 .505
167 .213
2 .117
337 .179
284 .364
–37 .134
500
20 .786
177 .143
168 .752
4 .196
336 .691
271 .215
–28 .333
600
20 .786
180 .933
170 .476
6 .274
336 .147
258 .170
–22 .475
700
20 .786
184 .137
172 .205
8 .353
335 .554
245 .221
–18 .298
800
20 .786
186 .913
173 .874
10 .431
334 .913
232 .359
–15 .171
900
20 .786
189 .361
175 .461
12 .510
334 .219
219 .581
–12 .744
1000
20 .786
191 .551
176 .963
14 .589
333 .463
206 .883
–10 .806
1100
20 .788
193 .532
178 .380
16 .667
332 .631
194 .265
–9 .225
1200
20 .793
195 .341
179 .719
18 .746
331 .703
181 .726
–7 .910
1300
20 .803
197 .006
180 .986
20 .826
330 .657
169 .270
–6 .801
1400
20 .823
198 .548
182 .186
22 .907
316 .342
157 .305
–5 .869
1500
20 .856
199 .986
183 .325
24 .991
315 .146
145 .987
–5 .084
39. COPPER OXIDE CuO (cr)
298 .15
42 .300
42 .740
42 .740
0 .000
–162 .000
–134 .277
23 .524
300
42 .417
43 .002
42 .741
0 .078
–161 .994
–134 .105
23 .349
400
46 .783
55 .878
44 .467
4 .564
–161 .487
–124 .876
16 .307
500
49 .190
66 .596
47 .852
9 .372
–160 .775
–115 .803
12 .098
600
50 .827
75 .717
51 .755
14 .377
–159 .973
–106 .883
9 .305
700
52 .099
83 .651
55 .757
19 .526
–159 .124
–98 .102
7 .320
800
53 .178
90 .680
59 .691
24 .791
–158 .247
–89 .444
5 .840
900
54 .144
97 .000
63 .491
30 .158
–157 .356
–80 .897
4 .695
1000
55 .040
102 .751
67 .134
35 .617
–156 .462
–72 .450
3 .784
1100
55 .890
108 .037
70 .615
41 .164
–155 .582
–64 .091
3 .043
1200
56 .709
112 .936
73 .941
46 .794
–154 .733
–55 .812
2 .429
Thermodynamic Properties as a Function of Temperature
5-53
487_S05.indb 53
3/14/06 2:39:19 PM
J/K
.
mol
kJ/mol
T/K
C°
p
S°
–(G°–H° (T
r
))/T
H°–H° (T
r
)
∆
f
H°
∆
f
G°
log K
f
1300
57 .507
117 .507
77 .118
52 .505
–153 .940
–47 .601
1 .913
1400
58 .288
121 .797
80 .158
58 .295
–166 .354
–39 .043
1 .457
1500
59 .057
125 .845
83 .070
64 .163
–165 .589
–29 .975
1 .044
40. DICOPPER OXIDE Cu
2
O (cr)
298 .15
62 .600
92 .550
92 .550
0 .000
–173 .100
–150 .344
26 .339
300
62 .721
92 .938
92 .551
0 .116
–173 .102
–150 .203
26 .152
400
67 .587
111 .712
95 .078
6 .654
–173 .036
–142 .572
18 .618
500
70 .784
127 .155
99 .995
13 .580
–172 .772
–134 .984
14 .101
600
73 .323
140 .291
105 .643
20 .789
–172 .389
–127 .460
11 .096
700
75 .552
151 .764
111 .429
28 .235
–171 .914
–120 .009
8 .955
800
77 .616
161 .989
117 .121
35 .894
–171 .363
–112 .631
7 .354
900
79 .584
171 .245
122 .629
43 .755
–170 .750
–105 .325
6 .113
1000
81 .492
179 .729
127 .920
51 .809
–170 .097
–98 .091
5 .124
1100
83 .360
187 .584
132 .992
60 .052
–169 .431
–90 .922
4 .317
1200
85 .202
194 .917
137 .850
68 .480
–168 .791
–83 .814
3 .648
1300
87 .026
201 .808
142 .507
77 .092
–168 .223
–76 .756
3 .084
1400
88 .836
208 .324
146 .978
85 .885
–194 .030
–68 .926
2 .572
1500
90 .636
214 .515
151 .276
94 .858
–193 .438
–60 .010
2 .090
41. COPPER DICHLORIDE CuCl
2
(cr, l)
298 .15
71 .880
108 .070
108 .070
0 .000
–218 .000
–173 .826
30 .453
300
71 .998
108 .515
108 .071
0 .133
–217 .975
–173 .552
30 .218
400
76 .338
129 .899
110 .957
7 .577
–216 .494
–158 .962
20 .758
500
78 .654
147 .204
116 .532
15 .336
–214 .873
–144 .765
15 .123
600
80 .175
161 .687
122 .884
23 .282
–213 .182
–130 .901
11 .396
675
81 .056
171 .183
127 .732
29 .329
–211 .185
–120 .693
9 .340
PHASE TRANSITION: ∆
trs
H = 0.700 kJ/mol, ∆
trs
S = 1.037 J/K
.
mol, crII–crI
675
82 .400
172 .220
127 .732
30 .029
–211 .185
–120 .693
9 .340
700
82 .400
175 .216
129 .375
32 .089
–210 .719
–117 .350
8 .757
800
82 .400
186 .219
135 .808
40 .329
–208 .898
–104 .137
6 .799
871
82 .400
193 .226
140 .207
46 .179
–192 .649
–94 .893
5 .691
PHASE TRANSITION: ∆
trs
H = 15.001 kJ/mol, ∆
trs
S = 17.221 J/K
.
mol, crI–l
871
100 .000
210 .447
140 .207
61 .180
–192 .649
–94 .893
5 .691
900
100 .000
213 .723
142 .523
64 .080
–191 .640
–91 .655
5 .319
1000
100 .000
224 .259
150 .179
74 .080
–188 .212
–80 .730
4 .217
1100
100 .000
233 .790
157 .353
84 .080
–184 .873
–70 .144
3 .331
1130 .75
100 .000
236 .547
159 .470
87 .155
–183 .867
–66 .951
3 .093
42. COPPER DICHLORIDE CuCl
2
(g)
298 .15
56 .814
278 .418
278 .418
0 .000
–43 .268
–49 .883
8 .739
300
56 .869
278 .769
278 .419
0 .105
–43 .271
–49 .924
8 .692
400
58 .992
295 .456
280 .679
5 .911
–43 .428
–52 .119
6 .806
500
60 .111
308 .752
285 .010
11 .871
–43 .606
–54 .271
5 .670
600
60 .761
319 .774
289 .911
17 .918
–43 .814
–56 .385
4 .909
700
61 .168
329 .173
294 .865
24 .015
–44 .060
–58 .462
4 .362
800
61 .439
337 .360
299 .677
30 .147
–44 .349
–60 .500
3 .950
900
61 .630
344 .608
304 .274
36 .301
–44 .688
–62 .499
3 .627
1000
61 .776
351 .109
308 .638
42 .471
–45 .088
–64 .457
3 .367
1100
61 .900
357 .003
312 .771
48 .655
–45 .566
–66 .372
3 .152
1200
62 .022
362 .394
316 .685
54 .851
–46 .139
–68 .239
2 .970
1300
62 .159
367 .364
320 .395
61 .060
–46 .829
–70 .053
2 .815
1400
62 .325
371 .976
323 .916
67 .284
–60 .784
–71 .404
2 .664
1500
62 .531
376 .283
327 .265
73 .526
–61 .613
–72 .133
2 .512
43. FLUORINE F (g)
298 .15
22 .746
158 .750
158 .750
0 .000
79 .380
62 .280
–10 .911
300
22 .742
158 .891
158 .750
0 .042
79 .393
62 .173
–10 .825
400
22 .432
165 .394
159 .639
2 .302
80 .043
56 .332
–7 .356
500
22 .100
170 .363
161 .307
4 .528
80 .587
50 .340
–5 .259
5-54
Thermodynamic Properties as a Function of Temperature
487_S05.indb 54
3/14/06 2:39:20 PM
J/K
.
mol
kJ/mol
T/K
C°
p
S°
–(G°–H° (T
r
))/T
H°–H° (T
r
)
∆
f
H°
∆
f
G°
log K
f
600
21 .832
174 .368
163 .161
6 .724
81 .046
44 .246
–3 .852
700
21 .629
177 .717
165 .008
8 .897
81 .442
38 .081
–2 .842
800
21 .475
180 .595
166 .780
11 .052
81 .792
31 .862
–2 .080
900
21 .357
183 .117
168 .458
13 .193
82 .106
25 .601
–1 .486
1000
21 .266
185 .362
170 .039
15 .324
82 .391
19 .308
–1 .009
1100
21 .194
187 .386
171 .525
17 .447
82 .654
12 .986
–0 .617
1200
21 .137
189 .227
172 .925
19 .563
82 .897
6 .642
–0 .289
1300
21 .091
190 .917
174 .245
21 .675
83 .123
0 .278
–0 .011
1400
21 .054
192 .479
175 .492
23 .782
83 .335
–6 .103
0 .228
1500
21 .022
193 .930
176 .673
25 .886
83 .533
–12 .498
0 .435
44. DIFLUORINE F
2
(g)
298 .15
31 .304
202 .790
202 .790
0 .000
0 .000
0 .000
0 .000
300
31 .337
202 .984
202 .790
0 .058
0 .000
0 .000
0 .000
400
32 .995
212 .233
204 .040
3 .277
0 .000
0 .000
0 .000
500
34 .258
219 .739
206 .453
6 .643
0 .000
0 .000
0 .000
600
35 .171
226 .070
209 .208
10 .117
0 .000
0 .000
0 .000
700
35 .839
231 .545
212 .017
13 .669
0 .000
0 .000
0 .000
800
36 .343
236 .365
214 .765
17 .279
0 .000
0 .000
0 .000
900
36 .740
240 .669
217 .409
20 .934
0 .000
0 .000
0 .000
1000
37 .065
244 .557
219 .932
24 .625
0 .000
0 .000
0 .000
1100
37 .342
248 .103
222 .334
28 .346
0 .000
0 .000
0 .000
1200
37 .588
251 .363
224 .619
32 .093
0 .000
0 .000
0 .000
1300
37 .811
254 .381
226 .794
35 .863
0 .000
0 .000
0 .000
1400
38 .019
257 .191
228 .866
39 .654
0 .000
0 .000
0 .000
1500
38 .214
259 .820
230 .843
43 .466
0 .000
0 .000
0 .000
45. HYDROGEN FLUORIDE HF (g)
298 .15
29 .137
173 .776
173 .776
0 .000
–273 .300
–275 .399
48 .248
300
29 .137
173 .956
173 .776
0 .054
–273 .302
–275 .412
47 .953
400
29 .149
182 .340
174 .919
2 .968
–273 .450
–276 .096
36 .054
500
29 .172
188 .846
177 .078
5 .884
–273 .679
–276 .733
28 .910
600
29 .230
194 .169
179 .496
8 .804
–273 .961
–277 .318
24 .142
700
29 .350
198 .683
181 .923
11 .732
–274 .277
–277 .852
20 .733
800
29 .549
202 .614
184 .269
14 .676
–274 .614
–278 .340
18 .174
900
29 .827
206 .110
186 .505
17 .645
–274 .961
–278 .785
16 .180
1000
30 .169
209 .270
188 .626
20 .644
–275 .309
–279 .191
14 .583
1100
30 .558
212 .163
190 .636
23 .680
–275 .652
–279 .563
13 .275
1200
30 .974
214 .840
192 .543
26 .756
–275 .988
–279 .904
12 .184
1300
31 .403
217 .336
194 .355
29 .875
–276 .315
–280 .217
11 .259
1400
31 .831
219 .679
196 .081
33 .037
–276 .631
–280 .505
10 .466
1500
32 .250
221 .889
197 .729
36 .241
–276 .937
–280 .771
9 .777
46. GERMANIUM Ge (cr, l)
298 .15
23 .222
31 .090
31 .090
0 .000
0 .000
0 .000
0 .000
300
23 .249
31 .234
31 .090
0 .043
0 .000
0 .000
0 .000
400
24 .310
38 .083
32 .017
2 .426
0 .000
0 .000
0 .000
500
24 .962
43 .582
33 .798
4 .892
0 .000
0 .000
0 .000
600
25 .452
48 .178
35 .822
7 .414
0 .000
0 .000
0 .000
700
25 .867
52 .133
37 .876
9 .980
0 .000
0 .000
0 .000
800
26 .240
55 .612
39 .880
12 .586
0 .000
0 .000
0 .000
900
26 .591
58 .723
41 .804
15 .227
0 .000
0 .000
0 .000
1000
26 .926
61 .542
43 .639
17 .903
0 .000
0 .000
0 .000
1100
27 .252
64 .124
45 .386
20 .612
0 .000
0 .000
0 .000
1200
27 .571
66 .509
47 .048
23 .353
0 .000
0 .000
0 .000
1211 .4
27 .608
66 .770
47 .232
23 .668
0 .000
0 .000
0 .000
PHASE TRANSITION: ∆
trs
H = 37.030 kJ/mol, ∆
trs
S = 30.568 J/K
.
mol, cr–l
1211 .4
27 .600
97 .338
47 .232
60 .698
0 .000
0 .000
0 .000
1300
27 .600
99 .286
50 .714
63 .143
0 .000
0 .000
0 .000
1400
27 .600
101 .331
54 .258
65 .903
0 .000
0 .000
0 .000
1500
27 .600
103 .236
57 .460
68 .663
0 .000
0 .000
0 .000
Thermodynamic Properties as a Function of Temperature
5-55
487_S05.indb 55
3/14/06 2:39:22 PM
J/K
.
mol
kJ/mol
T/K
C°
p
S°
–(G°–H° (T
r
))/T
H°–H° (T
r
)
∆
f
H°
∆
f
G°
log K
f
47. GERMANIUM Ge (g)
298 .15
30 .733
167 .903
167 .903
0 .000
367 .800
327 .009
–57 .290
300
30 .757
168 .094
167 .904
0 .057
367 .814
326 .756
–56 .893
400
31 .071
177 .025
169 .119
3 .162
368 .536
312 .959
–40 .868
500
30 .360
183 .893
171 .415
6 .239
369 .147
298 .991
–31 .235
600
29 .265
189 .334
173 .965
9 .222
369 .608
284 .914
–24 .804
700
28 .102
193 .758
176 .487
12 .090
369 .910
270 .773
–20 .205
800
27 .029
197 .439
178 .882
14 .845
370 .060
256 .598
–16 .754
900
26 .108
200 .567
181 .122
17 .501
370 .073
242 .414
–14 .069
1000
25 .349
203 .277
183 .205
20 .072
369 .969
228 .234
–11 .922
1100
24 .741
205 .664
185 .141
22 .575
369 .763
214 .069
–10 .165
1200
24 .264
207 .795
186 .941
25 .025
369 .471
199 .928
–8 .703
1300
23 .898
209 .722
188 .621
27 .432
332 .088
188 .521
–7 .575
1400
23 .624
211 .483
190 .192
29 .807
331 .704
177 .492
–6 .622
1500
23 .426
213 .105
191 .666
32 .159
331 .296
166 .491
–5 .798
48. GERMANIUM DIOXIDE GeO
2
(cr, l)
298 .15
50 .166
39 .710
39 .710
0 .000
–580 .200
–521 .605
91 .382
300
50 .475
40 .021
39 .711
0 .093
–580 .204
–521 .242
90 .755
400
61 .281
56 .248
41 .850
5 .759
–579 .893
–501 .610
65 .503
500
66 .273
70 .519
46 .191
12 .164
–579 .013
–482 .134
50 .368
600
69 .089
82 .872
51 .299
18 .943
–577 .915
–462 .859
40 .295
700
70 .974
93 .671
56 .597
25 .952
–576 .729
–443 .776
33 .115
800
72 .449
103 .247
61 .841
33 .125
–575 .498
–424 .866
27 .741
900
73 .764
111 .857
66 .928
40 .436
–574 .235
–406 .113
23 .570
1000
75 .049
119 .696
71 .819
47 .877
–572 .934
–387 .502
20 .241
1100
76 .378
126 .910
76 .504
55 .447
–571 .582
–369 .024
17 .523
1200
77 .796
133 .616
80 .987
63 .155
–570 .166
–350 .671
15 .264
1300
79 .332
139 .903
85 .279
71 .010
–605 .685
–329 .732
13 .249
1308
79 .460
140 .390
85 .615
71 .646
–584 .059
–328 .034
13 .100
PHASE TRANSITION: ∆
trs
H = 21.500 kJ/mol, ∆
trs
S = 16.437 J/K
.
mol, crII–crI
1308
80 .075
156 .827
85 .615
93 .146
–584 .059
–328 .034
13 .100
1388
81 .297
161 .617
89 .858
99 .601
–565 .504
–312 .415
11 .757
PHASE TRANSITION: ∆
trs
H = 17.200 kJ/mol, ∆
trs
S = 12.392 J/K
.
mol, crI–l
1388
78 .500
174 .009
89 .858
116 .801
–565 .504
–312 .415
11 .757
1400
78 .500
174 .685
90 .582
117 .743
–565 .328
–310 .228
11 .575
1500
78 .500
180 .100
96 .372
125 .593
–563 .882
–292 .057
10 .170
49. GERMANIUM TETRACHLORIDE GeCl
4
(g)
298 .15
95 .918
348 .393
348 .393
0 .000
–500 .000
–461 .582
80 .866
300
96 .041
348 .987
348 .395
0 .178
–499 .991
–461 .343
80 .326
400
100 .750
377 .342
352 .229
10 .045
–499 .447
–448 .540
58 .573
500
103 .206
400 .114
359 .604
20 .255
–498 .845
–435 .882
45 .536
600
104 .624
419 .067
367 .980
30 .652
–498 .234
–423 .347
36 .855
700
105 .509
435 .266
376 .463
41 .162
–497 .634
–410 .914
30 .662
800
106 .096
449 .396
384 .715
51 .744
–497 .057
–398 .565
26 .023
900
106 .504
461 .917
392 .611
62 .375
–496 .509
–386 .287
22 .419
1000
106 .799
473 .155
400 .113
73 .041
–495 .993
–374 .068
19 .539
1100
107 .020
483 .344
407 .224
83 .733
–495 .512
–361 .899
17 .185
1200
107 .189
492 .664
413 .961
94 .444
–495 .067
–349 .772
15 .225
1300
107 .320
501 .249
420 .349
105 .169
–531 .677
–334 .973
13 .459
1400
107 .425
509 .206
426 .416
115 .907
–531 .265
–319 .857
11 .934
1500
107 .509
516 .621
432 .185
126 .654
–530 .861
–304 .771
10 .613
50. HYDROGEN H (g)
298 .15
20 .786
114 .716
114 .716
0 .000
217 .998
203 .276
–35 .613
300
20 .786
114 .845
114 .716
0 .038
218 .010
203 .185
–35 .377
400
20 .786
120 .824
115 .532
2 .117
218 .635
198 .149
–25 .875
500
20 .786
125 .463
117 .071
4 .196
219 .253
192 .956
–20 .158
5-56
Thermodynamic Properties as a Function of Temperature
487_S05.indb 56
3/14/06 2:39:24 PM
J/K
.
mol
kJ/mol
T/K
C°
p
S°
–(G°–H° (T
r
))/T
H°–H° (T
r
)
∆
f
H°
∆
f
G°
log K
f
600
20 .786
129 .252
118 .795
6 .274
219 .867
187 .639
–16 .335
700
20 .786
132 .457
120 .524
8 .353
220 .476
182 .219
–13 .597
800
20 .786
135 .232
122 .193
10 .431
221 .079
176 .712
–11 .538
900
20 .786
137 .680
123 .780
12 .510
221 .670
171 .131
–9 .932
1000
20 .786
139 .870
125 .282
14 .589
222 .247
165 .485
–8 .644
1100
20 .786
141 .852
126 .700
16 .667
222 .806
159 .781
–7 .587
1200
20 .786
143 .660
128 .039
18 .746
223 .345
154 .028
–6 .705
1300
20 .786
145 .324
129 .305
20 .824
223 .864
148 .230
–5 .956
1400
20 .786
146 .864
130 .505
22 .903
224 .360
142 .393
–5 .313
1500
20 .786
148 .298
131 .644
24 .982
224 .835
136 .522
–4 .754
51. DIHYDROGEN H
2
(g)
298 .15
28 .836
130 .680
130 .680
0 .000
0 .000
0 .000
0 .000
300
28 .849
130 .858
130 .680
0 .053
0 .000
0 .000
0 .000
400
29 .181
139 .217
131 .818
2 .960
0 .000
0 .000
0 .000
500
29 .260
145 .738
133 .974
5 .882
0 .000
0 .000
0 .000
600
29 .327
151 .078
136 .393
8 .811
0 .000
0 .000
0 .000
700
29 .440
155 .607
138 .822
11 .749
0 .000
0 .000
0 .000
800
29 .623
159 .549
141 .172
14 .702
0 .000
0 .000
0 .000
900
29 .880
163 .052
143 .412
17 .676
0 .000
0 .000
0 .000
1000
30 .204
166 .217
145 .537
20 .680
0 .000
0 .000
0 .000
1100
30 .580
169 .113
147 .550
23 .719
0 .000
0 .000
0 .000
1200
30 .991
171 .791
149 .460
26 .797
0 .000
0 .000
0 .000
1300
31 .422
174 .288
151 .275
29 .918
0 .000
0 .000
0 .000
1400
31 .860
176 .633
153 .003
33 .082
0 .000
0 .000
0 .000
1500
32 .296
178 .846
154 .653
36 .290
0 .000
0 .000
0 .000
52. HYDROXYL OH (g)
298 .15
29 .886
183 .737
183 .737
0 .000
39 .349
34 .631
–6 .067
300
29 .879
183 .922
183 .738
0 .055
39 .350
34 .602
–6 .025
400
29 .604
192 .476
184 .906
3 .028
39 .384
33 .012
–4 .311
500
29 .495
199 .067
187 .104
5 .982
39 .347
31 .422
–3 .283
600
29 .513
204 .445
189 .560
8 .931
39 .252
29 .845
–2 .598
700
29 .655
209 .003
192 .020
11 .888
39 .113
28 .287
–2 .111
800
29 .914
212 .979
194 .396
14 .866
38 .945
26 .752
–1 .747
900
30 .265
216 .522
196 .661
17 .874
38 .763
25 .239
–1 .465
1000
30 .682
219 .731
198 .810
20 .921
38 .577
23 .746
–1 .240
1100
31 .135
222 .677
200 .848
24 .012
38 .393
22 .272
–1 .058
1200
31 .603
225 .406
202 .782
27 .149
38 .215
20 .814
–0 .906
1300
32 .069
227 .954
204 .621
30 .332
38 .046
19 .371
–0 .778
1400
32 .522
230 .347
206 .374
33 .562
37 .886
17 .941
–0 .669
1500
32 .956
232 .606
208 .048
36 .836
37 .735
16 .521
–0 .575
53. WATER H
2
O (l)
298 .15
75 .300
69 .950
69 .950
0 .000
–285 .830
–237 .141
41 .546
300
75 .281
70 .416
69 .951
0 .139
–285 .771
–236 .839
41 .237
373 .21
76 .079
86 .896
71 .715
5 .666
–283 .454
–225 .160
31 .513
54. WATER H
2
O (g)
298 .15
33 .598
188 .832
188 .832
0 .000
–241 .826
–228 .582
40 .046
300
33 .606
189 .040
188 .833
0 .062
–241 .844
–228 .500
39 .785
400
34 .283
198 .791
190 .158
3 .453
–242 .845
–223 .900
29 .238
500
35 .259
206 .542
192 .685
6 .929
–243 .822
–219 .050
22 .884
600
36 .371
213 .067
195 .552
10 .509
–244 .751
–214 .008
18 .631
700
37 .557
218 .762
198 .469
14 .205
–245 .620
–208 .814
15 .582
800
38 .800
223 .858
201 .329
18 .023
–246 .424
–203 .501
13 .287
900
40 .084
228 .501
204 .094
21 .966
–247 .158
–198 .091
11 .497
1000
41 .385
232 .792
206 .752
26 .040
–247 .820
–192 .603
10 .060
1100
42 .675
236 .797
209 .303
30 .243
–248 .410
–187 .052
8 .882
1200
43 .932
240 .565
211 .753
34 .574
–248 .933
–181 .450
7 .898
1300
45 .138
244 .129
214 .108
39 .028
–249 .392
–175 .807
7 .064
Thermodynamic Properties as a Function of Temperature
5-57
487_S05.indb 57
3/14/06 2:39:26 PM
J/K
.
mol
kJ/mol
T/K
C°
p
S°
–(G°–H° (T
r
))/T
H°–H° (T
r
)
∆
f
H°
∆
f
G°
log K
f
1400
46 .281
247 .516
216 .374
43 .599
–249 .792
–170 .132
6 .348
1500
47 .356
250 .746
218 .559
48 .282
–250 .139
–164 .429
5 .726
55. IODINE I (g)
298 .15
20 .786
180 .787
180 .787
0 .000
106 .760
70 .172
–12 .294
300
20 .786
180 .915
180 .787
0 .038
106 .748
69 .945
–12 .178
400
20 .786
186 .895
181 .602
2 .117
97 .974
58 .060
–7 .582
500
20 .786
191 .533
183 .142
4 .196
75 .988
50 .202
–5 .244
600
20 .786
195 .323
184 .866
6 .274
76 .190
45 .025
–3 .920
700
20 .786
198 .527
186 .594
8 .353
76 .385
39 .816
–2 .971
800
20 .787
201 .303
188 .263
10 .432
76 .574
34 .579
–2 .258
900
20 .789
203 .751
189 .851
12 .510
76 .757
29 .319
–1 .702
1000
20 .795
205 .942
191 .352
14 .589
76 .936
24 .038
–1 .256
1100
20 .806
207 .924
192 .770
16 .669
77 .109
18 .740
–0 .890
1200
20 .824
209 .735
194 .110
18 .751
77 .277
13 .426
–0 .584
1300
20 .851
211 .403
195 .377
20 .835
77 .440
8 .098
–0 .325
1400
20 .889
212 .950
196 .577
22 .921
77 .596
2 .758
–0 .103
1500
20 .936
214 .392
197 .717
25 .013
77 .745
–2 .592
0 .090
56. DIIODINE I
2
(cr, l)
298 .15
54 .440
116 .139
116 .139
0 .000
0 .000
0 .000
0 .000
300
54 .518
116 .476
116 .140
0 .101
0 .000
0 .000
0 .000
386 .75
61 .531
131 .039
117 .884
5 .088
0 .000
0 .000
0 .000
PHASE TRANSITION: ∆
trs
H = 15.665 kJ/mol, ∆
trs
S = 40.504 J/K
.
mol, cr–l
386 .75
79 .555
171 .543
117 .884
20 .753
0 .000
0 .000
0 .000
400
79 .555
174 .223
119 .706
21 .807
0 .000
0 .000
0 .000
457 .67
79 .555
184 .938
127 .266
26 .395
0 .000
0 .000
0 .000
57. DIIODINE I
2
(g)
298 .15
36 .887
260 .685
260 .685
0 .000
62 .420
19 .324
–3 .385
300
36 .897
260 .913
260 .685
0 .068
62 .387
19 .056
–3 .318
400
37 .256
271 .584
262 .138
3 .778
44 .391
5 .447
–0 .711
457 .67
37 .385
276 .610
263 .652
5 .931
pressure = 1 bar
500
37 .464
279 .921
264 .891
7 .515
0 .000
0 .000
0 .000
600
37 .613
286 .765
267 .983
11 .269
0 .000
0 .000
0 .000
700
37 .735
292 .573
271 .092
15 .037
0 .000
0 .000
0 .000
800
37 .847
297 .619
274 .099
18 .816
0 .000
0 .000
0 .000
900
37 .956
302 .083
276 .965
22 .606
0 .000
0 .000
0 .000
1000
38 .070
306 .088
279 .681
26 .407
0 .000
0 .000
0 .000
1100
38 .196
309 .722
282 .249
30 .220
0 .000
0 .000
0 .000
1200
38 .341
313 .052
284 .679
34 .047
0 .000
0 .000
0 .000
1300
38 .514
316 .127
286 .981
37 .890
0 .000
0 .000
0 .000
1400
38 .719
318 .989
289 .166
41 .751
0 .000
0 .000
0 .000
1500
38 .959
321 .668
291 .245
45 .635
0 .000
0 .000
0 .000
58. HYDROGEN IODIDE HI (g)
298 .15
29 .157
206 .589
206 .589
0 .000
26 .500
1 .700
–0 .298
300
29 .158
206 .769
206 .589
0 .054
26 .477
1 .546
–0 .269
400
29 .329
215 .176
207 .734
2 .977
17 .093
–6 .289
0 .821
500
29 .738
221 .760
209 .904
5 .928
–5 .481
–9 .946
1 .039
600
30 .351
227 .233
212 .348
8 .931
–5 .819
–10 .806
0 .941
700
31 .070
231 .965
214 .820
12 .002
–6 .101
–11 .614
0 .867
800
31 .807
236 .162
217 .230
15 .145
–6 .323
–12 .386
0 .809
900
32 .511
239 .950
219 .548
18 .362
–6 .489
–13 .133
0 .762
1000
33 .156
243 .409
221 .763
21 .646
–6 .608
–13 .865
0 .724
1100
33 .735
246 .597
223 .878
24 .991
–6 .689
–14 .586
0 .693
1200
34 .249
249 .555
225 .896
28 .391
–6 .741
–15 .302
0 .666
1300
34 .703
252 .314
227 .823
31 .839
–6 .775
–16 .014
0 .643
1400
35 .106
254 .901
229 .666
35 .330
–6 .797
–16 .723
0 .624
1500
35 .463
257 .336
231 .430
38 .858
–6 .814
–17 .432
0 .607
5-58
Thermodynamic Properties as a Function of Temperature
487_S05.indb 58
3/14/06 2:39:28 PM
J/K
.
mol
kJ/mol
T/K
C°
p
S°
–(G°–H° (T
r
))/T
H°–H° (T
r
)
∆
f
H°
∆
f
G°
log K
f
59. POTASSIUM K (cr, l)
298 .15
29 .600
64 .680
64 .680
0 .000
0 .000
0 .000
0 .000
300
29 .671
64 .863
64 .681
0 .055
0 .000
0 .000
0 .000
336 .86
32 .130
68 .422
64 .896
1 .188
0 .000
0 .000
0 .000
PHASE TRANSITION: ∆
trs
H = 2.321 kJ/mol, ∆
trs
S = 6.891 J/K
.
mol, cr–l
336 .86
32 .129
75 .313
64 .896
3 .509
0 .000
0 .000
0 .000
400
31 .552
80 .784
66 .986
5 .519
0 .000
0 .000
0 .000
500
30 .741
87 .734
70 .469
8 .632
0 .000
0 .000
0 .000
600
30 .158
93 .283
73 .824
11 .675
0 .000
0 .000
0 .000
700
29 .851
97 .905
76 .943
14 .673
0 .000
0 .000
0 .000
800
29 .838
101 .887
79 .818
17 .655
0 .000
0 .000
0 .000
900
30 .130
105 .415
82 .470
20 .651
0 .000
0 .000
0 .000
1000
30 .730
108 .618
84 .927
23 .691
0 .000
0 .000
0 .000
1039 .4
31 .053
109 .812
85 .847
24 .908
0 .000
0 .000
0 .000
60. POTASSIUM K (g)
298 .15
20 .786
160 .340
160 .340
0 .000
89 .000
60 .479
–10 .596
300
20 .786
160 .468
160 .340
0 .038
88 .984
60 .302
–10 .499
400
20 .786
166 .448
161 .155
2 .117
85 .598
51 .332
–6 .703
500
20 .786
171 .086
162 .695
4 .196
84 .563
42 .887
–4 .480
600
20 .786
174 .876
164 .419
6 .274
83 .599
34 .643
–3 .016
700
20 .786
178 .080
166 .148
8 .353
82 .680
26 .557
–1 .982
800
20 .786
180 .856
167 .817
10 .431
81 .776
18 .601
–1 .215
900
20 .786
183 .304
169 .404
12 .510
80 .859
10 .759
–0 .624
1000
20 .786
185 .494
170 .905
14 .589
79 .897
3 .021
–0 .158
1039 .4
20 .786
186 .297
171 .474
15 .408
pressure = 1 bar
1100
20 .786
187 .475
172 .323
16 .667
0 .000
0 .000
0 .000
1200
20 .786
189 .284
173 .662
18 .746
0 .000
0 .000
0 .000
1300
20 .789
190 .948
174 .929
20 .825
0 .000
0 .000
0 .000
1400
20 .793
192 .489
176 .129
22 .904
0 .000
0 .000
0 .000
1500
20 .801
193 .923
177 .268
24 .983
0 .000
0 .000
0 .000
61. DIPOTASSIUM OXIDE K
2
O (cr, l)
298 .15
72 .000
96 .000
96 .000
0 .000
–361 .700
–321 .171
56 .267
300
72 .130
96 .446
96 .001
0 .133
–361 .704
–320 .920
55 .876
400
79 .154
118 .158
98 .914
7 .698
–366 .554
–306 .416
40 .013
500
86 .178
136 .575
104 .647
15 .964
–366 .043
–291 .423
30 .444
590
92 .500
151 .348
110 .662
24 .005
–364 .204
–278 .079
24 .619
PHASE TRANSITION: ∆
trs
H = 0.700 kJ/mol, ∆
trs
S = 1.186 J/K
.
mol, crIII–crII
590
100 .000
152 .534
110 .662
24 .705
–364 .204
–278 .079
24 .619
600
100 .000
154 .215
111 .374
25 .705
–363 .968
–276 .621
24 .082
645
100 .000
161 .447
114 .618
30 .205
–358 .901
–270 .109
21 .874
PHASE TRANSITION: ∆
trs
H = 4.000 kJ/mol, ∆
trs
S = 6.202 J/K
.
mol, crII–crI
645
100 .000
167 .649
114 .618
34 .205
–358 .901
–270 .109
21 .874
700
100 .000
175 .832
119 .111
39 .705
–357 .592
–262 .592
19 .595
800
100 .000
189 .185
127 .054
49 .705
–355 .224
–249 .183
16 .270
900
100 .000
200 .963
134 .625
59 .705
–352 .919
–236 .067
13 .701
1000
100 .000
211 .499
141 .794
69 .705
–350 .732
–223 .202
11 .659
1013
100 .000
212 .791
142 .697
71 .005
–323 .459
–221 .546
11 .424
PHASE TRANSITION: ∆
trs
H = 27.000 kJ/mol, ∆
trs
S =26.654 J/K
.
mol, crI–l
1013
100 .000
239 .444
142 .697
98 .005
–323 .459
–221 .546
11 .424
1100
100 .000
247 .684
150 .679
106 .705
–479 .439
–203 .633
9 .670
1200
100 .000
256 .385
159 .131
116 .705
–475 .371
–178 .740
7 .780
1300
100 .000
264 .389
166 .924
126 .705
–471 .321
–154 .185
6 .195
1400
100 .000
271 .800
174 .154
136 .705
–467 .287
–129 .941
4 .848
1500
100 .000
278 .699
180 .896
146 .705
–463 .268
–105 .986
3 .691
Thermodynamic Properties as a Function of Temperature
5-59
487_S05.indb 59
3/14/06 2:39:30 PM
J/K
.
mol
kJ/mol
T/K
C°
p
S°
–(G°–H° (T
r
))/T
H°–H° (T
r
)
∆
f
H°
∆
f
G°
log K
f
62. POTASSIUM HYDROXIDE KOH (cr, l)
298 .15
64 .900
78 .870
78 .870
0 .000
–424 .580
–378 .747
66 .354
300
65 .038
79 .272
78 .871
0 .120
–424 .569
–378 .463
65 .895
400
72 .519
99 .007
81 .512
6 .998
–426 .094
–362 .765
47 .372
500
80 .000
115 .993
86 .745
14 .624
–424 .572
–347 .093
36 .260
520
81 .496
119 .159
87 .931
16 .239
–417 .725
–344 .002
34 .555
PHASE TRANSITION: ∆
trs
H = 6.450 kJ/mol, ∆
trs
S = 12.404 J/K
.
mol, crII–crI
520
79 .000
131 .563
87 .931
22 .689
–417 .725
–344 .002
34 .555
600
79 .000
142 .868
94 .520
29 .009
–416 .274
–332 .766
28 .969
678
79 .000
152 .523
100 .649
35 .171
–405 .464
–321 .998
24 .807
PHASE TRANSITION: ∆
trs
H = 9.400 kJ/mol, ∆
trs
S = 13.865 J/K
.
mol, crI–l
678
83 .000
166 .388
100 .649
44 .571
–405 .464
–321 .998
24 .807
700
83 .000
169 .038
102 .757
46 .397
–404 .981
–319 .297
23 .826
800
83 .000
180 .121
111 .750
54 .697
–402 .808
–307 .206
20 .058
900
83 .000
189 .897
119 .901
62 .997
–400 .694
–295 .383
17 .143
1000
83 .000
198 .642
127 .345
71 .297
–398 .668
–283 .791
14 .824
1100
83 .000
206 .553
134 .192
79 .597
–475 .618
–267 .780
12 .716
1200
83 .000
213 .775
140 .527
87 .897
–472 .711
–249 .014
10 .839
1300
83 .000
220 .418
146 .421
96 .197
–469 .843
–230 .490
9 .261
1400
83 .000
226 .569
151 .929
104 .497
–467 .011
–212 .184
7 .917
1500
83 .000
232 .296
157 .098
112 .797
–464 .217
–194 .080
6 .758
63. POTASSIUM HYDROXIDE KOH (g)
298 .15
49 .184
238 .283
238 .283
0 .000
–227 .989
–229 .685
40 .239
300
49 .236
238 .588
238 .284
0 .091
–228 .007
–229 .696
39 .993
400
51 .178
253 .053
240 .243
5 .124
–231 .377
–229 .667
29 .991
500
52 .178
264 .591
243 .998
10 .296
–232 .309
–229 .129
23 .937
600
52 .804
274 .163
248 .251
15 .547
–233 .145
–228 .413
19 .885
700
53 .296
282 .340
252 .551
20 .853
–233 .934
–227 .562
16 .981
800
53 .758
289 .487
256 .730
26 .206
–234 .708
–226 .599
14 .795
900
54 .229
295 .846
260 .730
31 .605
–235 .495
–225 .538
13 .090
1000
54 .713
301 .585
264 .533
37 .052
–236 .322
–224 .388
11 .721
1100
55 .203
306 .823
268 .143
42 .548
–316 .077
–218 .535
10 .377
1200
55 .686
311 .647
271 .570
48 .092
–315 .925
–209 .674
9 .127
1300
56 .153
316 .122
274 .827
53 .684
–315 .764
–200 .826
8 .069
1400
56 .598
320 .300
277 .927
59 .322
–315 .595
–191 .991
7 .163
1500
57 .016
324 .220
280 .884
65 .003
–315 .420
–183 .169
6 .378
64. POTASSIUM CHLORIDE KCl (cr, l)
298 .15
51 .300
82 .570
82 .570
0 .000
–436 .490
–408 .568
71 .579
300
51 .333
82 .887
82 .571
0 .095
–436 .481
–408 .395
71 .107
400
52 .977
97 .886
84 .605
5 .312
–438 .463
–398 .651
52 .058
500
54 .448
109 .867
88 .498
10 .685
–437 .990
–388 .749
40 .612
600
55 .885
119 .921
92 .919
16 .201
–437 .332
–378 .960
32 .991
700
57 .425
128 .649
97 .413
21 .865
–436 .502
–369 .295
27 .557
800
59 .205
136 .430
101 .812
27 .694
–435 .505
–359 .760
23 .490
900
61 .361
143 .523
106 .058
33 .719
–434 .337
–350 .360
20 .334
1000
64 .032
150 .121
110 .138
39 .983
–432 .981
–341 .100
17 .817
1044
65 .405
152 .908
111 .882
42 .830
–485 .450
–336 .720
16 .847
PHASE TRANSITION: ∆
trs
H = 26.320 kJ/mol, ∆
trs
S = 25.210 J/K
.
mol, cr–l
1044
72 .000
178 .118
111 .882
69 .150
–485 .450
–336 .720
16 .847
1100
72 .000
181 .880
115 .351
73 .182
–483 .633
–328 .790
15 .613
1200
72 .000
188 .145
121 .160
80 .382
–480 .393
–314 .856
13 .705
1300
72 .000
193 .908
126 .537
87 .582
–477 .158
–301 .192
12 .102
1400
72 .000
199 .244
131 .542
94 .782
–473 .928
–287 .778
10 .737
1500
72 .000
204 .211
136 .223
101 .982
–470 .704
–274 .594
9 .562
5-60
Thermodynamic Properties as a Function of Temperature
487_S05.indb 60
3/14/06 2:39:31 PM
J/K
.
mol
kJ/mol
T/K
C°
p
S°
–(G°–H° (T
r
))/T
H°–H° (T
r
)
∆
f
H°
∆
f
G°
log K
f
65. POTASSIUM CHLORIDE KCl (g)
298 .15
36 .505
239 .091
239 .091
0 .000
–214 .575
–233 .320
40 .876
300
36 .518
239 .317
239 .092
0 .068
–214 .594
–233 .436
40 .644
400
37 .066
249 .904
240 .532
3 .749
–218 .112
–239 .107
31 .224
500
37 .384
258 .212
243 .267
7 .473
–219 .287
–244 .219
25 .513
600
37 .597
265 .048
246 .344
11 .222
–220 .396
–249 .100
21 .686
700
37 .769
270 .857
249 .441
14 .991
–221 .461
–253 .799
18 .938
800
37 .907
275 .910
252 .441
18 .775
–222 .509
–258 .347
16 .868
900
38 .041
280 .382
255 .302
22 .572
–223 .568
–262 .764
15 .250
1000
38 .162
284 .397
258 .014
26 .383
–224 .667
–267 .061
13 .950
1100
38 .279
288 .039
260 .581
30 .205
–304 .696
–266 .627
12 .661
1200
38 .401
291 .375
263 .010
34 .039
–304 .821
–263 .161
11 .455
1300
38 .518
294 .454
265 .312
37 .885
–304 .941
–259 .684
10 .434
1400
38 .639
297 .313
267 .496
41 .743
–305 .053
–256 .199
9 .559
1500
38 .761
299 .983
269 .574
45 .613
–305 .159
–252 .706
8 .800
66. DINITROGEN N
2
(g)
298 .15
29 .124
191 .608
191 .608
0 .000
0 .000
0 .000
0 .000
300
29 .125
191 .788
191 .608
0 .054
0 .000
0 .000
0 .000
400
29 .249
200 .180
192 .752
2 .971
0 .000
0 .000
0 .000
500
29 .580
206 .738
194 .916
5 .911
0 .000
0 .000
0 .000
600
30 .109
212 .175
197 .352
8 .894
0 .000
0 .000
0 .000
700
30 .754
216 .864
199 .812
11 .936
0 .000
0 .000
0 .000
800
31 .433
221 .015
202 .208
15 .046
0 .000
0 .000
0 .000
900
32 .090
224 .756
204 .509
18 .222
0 .000
0 .000
0 .000
1000
32 .696
228 .169
206 .706
21 .462
0 .000
0 .000
0 .000
1100
33 .241
231 .311
208 .802
24 .759
0 .000
0 .000
0 .000
1200
33 .723
234 .224
210 .801
28 .108
0 .000
0 .000
0 .000
1300
34 .147
236 .941
212 .708
31 .502
0 .000
0 .000
0 .000
1400
34 .517
239 .485
214 .531
34 .936
0 .000
0 .000
0 .000
1500
34 .842
241 .878
216 .275
38 .404
0 .000
0 .000
0 .000
67. NITRIC OXIDE NO (g)
298 .15
29 .862
210 .745
210 .745
0 .000
91 .277
87 .590
–15 .345
300
29 .858
210 .930
210 .746
0 .055
91 .278
87 .567
–15 .247
400
29 .954
219 .519
211 .916
3 .041
91 .320
86 .323
–11 .272
500
30 .493
226 .255
214 .133
6 .061
91 .340
85 .071
–8 .887
600
31 .243
231 .879
216 .635
9 .147
91 .354
83 .816
–7 .297
700
32 .031
236 .754
219 .168
12 .310
91 .369
82 .558
–6 .160
800
32 .770
241 .081
221 .642
15 .551
91 .386
81 .298
–5 .308
900
33 .425
244 .979
224 .022
18 .862
91 .405
80 .036
–4 .645
1000
33 .990
248 .531
226 .298
22 .233
91 .426
78 .772
–4 .115
1100
34 .473
251 .794
228 .469
25 .657
91 .445
77 .505
–3 .680
1200
34 .883
254 .811
230 .540
29 .125
91 .464
76 .237
–3 .318
1300
35 .234
257 .618
232 .516
32 .632
91 .481
74 .967
–3 .012
1400
35 .533
260 .240
234 .404
36 .170
91 .495
73 .697
–2 .750
1500
35 .792
262 .700
236 .209
39 .737
91 .506
72 .425
–2 .522
68. NITROGEN DIOXIDE NO
2
(g)
298 .15
37 .178
240 .166
240 .166
0 .000
34 .193
52 .316
–9 .165
300
37 .236
240 .397
240 .167
0 .069
34 .181
52 .429
–9 .129
400
40 .513
251 .554
241 .666
3 .955
33 .637
58 .600
–7 .652
500
43 .664
260 .939
244 .605
8 .167
33 .319
64 .882
–6 .778
600
46 .383
269 .147
248 .026
12 .673
33 .174
71 .211
–6 .199
700
48 .612
276 .471
251 .575
17 .427
33 .151
77 .553
–5 .787
800
50 .405
283 .083
255 .107
22 .381
33 .213
83 .893
–5 .478
900
51 .844
289 .106
258 .555
27 .496
33 .334
90 .221
–5 .236
1000
53 .007
294 .631
261 .891
32 .741
33 .495
96 .534
–5 .042
1100
53 .956
299 .729
265 .102
38 .090
33 .686
102 .828
–4 .883
1200
54 .741
304 .459
268 .187
43 .526
33 .898
109 .105
–4 .749
Thermodynamic Properties as a Function of Temperature
5-61
487_S05.indb 61
3/14/06 2:39:33 PM
J/K
.
mol
kJ/mol
T/K
C°
p
S°
–(G°–H° (T
r
))/T
H°–H° (T
r
)
∆
f
H°
∆
f
G°
log K
f
1300
55 .399
308 .867
271 .148
49 .034
34 .124
115 .363
–4 .635
1400
55 .960
312 .994
273 .992
54 .603
34 .360
121 .603
–4 .537
1500
56 .446
316 .871
276 .722
60 .224
34 .604
127 .827
–4 .451
69. AMMONIA NH
3
(g)
298 .15
35 .630
192 .768
192 .768
0 .000
–45 .940
–16 .407
2 .874
300
35 .678
192 .989
192 .769
0 .066
–45 .981
–16 .223
2 .825
400
38 .674
203 .647
194 .202
3 .778
–48 .087
–5 .980
0 .781
500
41 .994
212 .633
197 .011
7 .811
–49 .908
4 .764
–0 .498
600
45 .229
220 .578
200 .289
12 .174
–51 .430
15 .846
–1 .379
700
48 .269
227 .781
203 .709
16 .850
–52 .682
27 .161
–2 .027
800
51 .112
234 .414
207 .138
21 .821
–53 .695
38 .639
–2 .523
900
53 .769
240 .589
210 .516
27 .066
–54 .499
50 .231
–2 .915
1000
56 .244
246 .384
213 .816
32 .569
–55 .122
61 .903
–3 .233
1100
58 .535
251 .854
217 .027
38 .309
–55 .589
73 .629
–3 .496
1200
60 .644
257 .039
220 .147
44 .270
–55 .920
85 .392
–3 .717
1300
62 .576
261 .970
223 .176
50 .432
–56 .136
97 .177
–3 .905
1400
64 .339
266 .673
226 .117
56 .779
–56 .251
108 .975
–4 .066
1500
65 .945
271 .168
228 .971
63 .295
–56 .282
120 .779
–4 .206
70. OXYGEN O (g)
298 .15
21 .911
161 .058
161 .058
0 .000
249 .180
231 .743
–40 .600
300
21 .901
161 .194
161 .059
0 .041
249 .193
231 .635
–40 .331
400
21 .482
167 .430
161 .912
2 .207
249 .874
225 .677
–29 .470
500
21 .257
172 .197
163 .511
4 .343
250 .481
219 .556
–22 .937
600
21 .124
176 .060
165 .290
6 .462
251 .019
213 .319
–18 .571
700
21 .040
179 .310
167 .067
8 .570
251 .500
206 .997
–15 .446
800
20 .984
182 .115
168 .777
10 .671
251 .932
200 .610
–13 .098
900
20 .944
184 .584
170 .399
12 .767
252 .325
194 .171
–11 .269
1000
20 .915
186 .789
171 .930
14 .860
252 .686
187 .689
–9 .804
1100
20 .893
188 .782
173 .372
16 .950
253 .022
181 .173
–8 .603
1200
20 .877
190 .599
174 .733
19 .039
253 .335
174 .628
–7 .601
1300
20 .864
192 .270
176 .019
21 .126
253 .630
168 .057
–6 .753
1400
20 .853
193 .815
177 .236
23 .212
253 .908
161 .463
–6 .024
1500
20 .845
195 .254
178 .389
25 .296
254 .171
154 .851
–5 .392
71. DIOXYGEN O
2
(g)
298 .15
29 .378
205 .148
205 .148
0 .000
0 .000
0 .000
0 .000
300
29 .387
205 .330
205 .148
0 .054
0 .000
0 .000
0 .000
400
30 .109
213 .873
206 .308
3 .026
0 .000
0 .000
0 .000
500
31 .094
220 .695
208 .525
6 .085
0 .000
0 .000
0 .000
600
32 .095
226 .454
211 .045
9 .245
0 .000
0 .000
0 .000
700
32 .987
231 .470
213 .612
12 .500
0 .000
0 .000
0 .000
800
33 .741
235 .925
216 .128
15 .838
0 .000
0 .000
0 .000
900
34 .365
239 .937
218 .554
19 .244
0 .000
0 .000
0 .000
1000
34 .881
243 .585
220 .878
22 .707
0 .000
0 .000
0 .000
1100
35 .314
246 .930
223 .096
26 .217
0 .000
0 .000
0 .000
1200
35 .683
250 .019
225 .213
29 .768
0 .000
0 .000
0 .000
1300
36 .006
252 .888
227 .233
33 .352
0 .000
0 .000
0 .000
1400
36 .297
255 .568
229 .162
36 .968
0 .000
0 .000
0 .000
1500
36 .567
258 .081
231 .007
40 .611
0 .000
0 .000
0 .000
72. SULFUR S (cr, l)
298 .15
22 .690
32 .070
32 .070
0 .000
0 .000
0 .000
0 .000
300
22 .737
32 .210
32 .070
0 .042
0 .000
0 .000
0 .000
368 .3
24 .237
37 .030
32 .554
1 .649
0 .000
0 .000
0 .000
PHASE TRANSITION: ∆
trs
H = 0.401 kJ/mol, ∆
trs
S = 1.089 J/K
.
mol, crII–crI
368 .3
24 .773
38 .119
32 .553
2 .050
0 .000
0 .000
0 .000
388 .36
25 .180
39 .444
32 .875
2 .551
0 .000
0 .000
0 .000
5-62
Thermodynamic Properties as a Function of Temperature
487_S05.indb 62
3/14/06 2:39:35 PM
J/K
.
mol
kJ/mol
T/K
C°
p
S°
–(G°–H° (T
r
))/T
H°–H° (T
r
)
∆
f
H°
∆
f
G°
log K
f
PHASE TRANSITION: ∆
trs
H = 1.722 kJ/mol, ∆
trs
S = 4.431 J/K
.
mol, crI–l
388 .36
31 .710
43 .875
32 .872
4 .273
0 .000
0 .000
0 .000
400
32 .369
44 .824
33 .206
4 .647
0 .000
0 .000
0 .000
500
38 .026
53 .578
36 .411
8 .584
0 .000
0 .000
0 .000
600
34 .371
60 .116
39 .842
12 .164
0 .000
0 .000
0 .000
700
32 .451
65 .278
43 .120
15 .511
0 .000
0 .000
0 .000
800
32 .000
69 .557
46 .163
18 .715
0 .000
0 .000
0 .000
882 .38
32 .000
72 .693
48 .496
21 .351
0 .000
0 .000
0 .000
73. SULFUR S (g)
298 .15
23 .673
167 .828
167 .828
0 .000
277 .180
236 .704
–41 .469
300
23 .669
167 .974
167 .828
0 .044
277 .182
236 .453
–41 .170
400
23 .233
174 .730
168 .752
2 .391
274 .924
222 .962
–29 .115
500
22 .741
179 .860
170 .482
4 .689
273 .286
210 .145
–21 .953
600
22 .338
183 .969
172 .398
6 .942
271 .958
197 .646
–17 .206
700
22 .031
187 .388
174 .302
9 .160
270 .829
185 .352
–13 .831
800
21 .800
190 .314
176 .125
11 .351
269 .816
173 .210
–11 .309
900
21 .624
192 .871
177 .847
13 .522
215 .723
162 .258
–9 .417
1000
21 .489
195 .142
179 .465
15 .677
216 .018
156 .301
–8 .164
1100
21 .386
197 .185
180 .985
17 .821
216 .284
150 .317
–7 .138
1200
21 .307
199 .043
182 .413
19 .955
216 .525
144 .309
–6 .282
1300
21 .249
200 .746
183 .759
22 .083
216 .743
138 .282
–5 .556
1400
21 .209
202 .319
185 .029
24 .206
216 .940
132 .239
–4 .934
1500
21 .186
203 .781
186 .231
26 .325
217 .119
126 .182
–4 .394
74. DISULFUR S
2
(g)
298 .15
32 .505
228 .165
228 .165
0 .000
128 .600
79 .696
–13 .962
300
32 .540
228 .366
228 .165
0 .060
128 .576
79 .393
–13 .823
400
34 .108
237 .956
229 .462
3 .398
122 .703
63 .380
–8 .276
500
35 .133
245 .686
231 .959
6 .863
118 .296
49 .031
–5 .122
600
35 .815
252 .156
234 .800
10 .413
114 .685
35 .530
–3 .093
700
36 .305
257 .715
237 .686
14 .020
111 .599
22 .588
–1 .685
800
36 .697
262 .589
240 .501
17 .671
108 .841
10 .060
–0 .657
882 .38
36 .985
266 .200
242 .734
20 .706
pressure = 1 bar
900
37 .045
266 .932
243 .201
21 .358
0 .000
0 .000
0 .000
1000
37 .377
270 .852
245 .773
25 .079
0 .000
0 .000
0 .000
1100
37 .704
274 .430
248 .218
28 .833
0 .000
0 .000
0 .000
1200
38 .030
277 .725
250 .541
32 .620
0 .000
0 .000
0 .000
1300
38 .353
280 .781
252 .751
36 .439
0 .000
0 .000
0 .000
1400
38 .669
283 .635
254 .856
40 .290
0 .000
0 .000
0 .000
1500
38 .976
286 .314
256 .865
44 .173
0 .000
0 .000
0 .000
75. OCTASULFUR S
8
(g)
298 .15
156 .500
432 .536
432 .536
0 .000
101 .277
48 .810
–8 .551
300
156 .768
433 .505
432 .539
0 .290
101 .231
48 .484
–8 .442
400
167 .125
480 .190
438 .834
16 .542
80 .642
32 .003
–4 .179
500
173 .181
518 .176
451 .022
33 .577
66 .185
21 .409
–2 .237
600
177 .936
550 .180
464 .951
51 .137
55 .101
13 .549
–1 .180
700
182 .441
577 .948
479 .152
69 .157
46 .349
7 .343
–0 .548
800
186 .764
602 .596
493 .071
87 .620
39 .177
2 .263
–0 .148
900
190 .595
624 .821
506 .495
106 .494
–392 .062
6 .554
–0 .380
1000
193 .618
645 .067
519 .355
125 .712
–387 .728
50 .614
–2 .644
1100
195 .684
663 .625
531 .639
145 .185
–383 .272
94 .233
–4 .475
1200
196 .825
680 .707
543 .359
164 .817
–378 .786
137 .444
–5 .983
1300
197 .195
696 .480
554 .539
184 .524
–374 .356
180 .283
–7 .244
1400
196 .988
711 .089
565 .206
204 .237
–370 .048
222 .785
–8 .312
1500
196 .396
724 .662
575 .389
223 .909
–365 .905
264 .984
–9 .227
76. SULFUR DIOXIDE SO
2
(g)
298 .15
39 .842
248 .219
248 .219
0 .000
–296 .810
–300 .090
52 .574
300
39 .909
248 .466
248 .220
0 .074
–296 .833
–300 .110
52 .253
Thermodynamic Properties as a Function of Temperature
5-63
487_S05.indb 63
3/14/06 2:39:37 PM
J/K
.
mol
kJ/mol
T/K
C°
p
S°
–(G°–H° (T
r
))/T
H°–H° (T
r
)
∆
f
H°
∆
f
G°
log K
f
400
43 .427
260 .435
249 .828
4 .243
–300 .240
–300 .935
39 .298
500
46 .490
270 .465
252 .978
8 .744
–302 .735
–300 .831
31 .427
600
48 .938
279 .167
256 .634
13 .520
–304 .699
–300 .258
26 .139
700
50 .829
286 .859
260 .413
18 .513
–306 .308
–299 .386
22 .340
800
52 .282
293 .746
264 .157
23 .671
–307 .691
–298 .302
19 .477
900
53 .407
299 .971
267 .796
28 .958
–362 .075
–295 .987
17 .178
1000
54 .290
305 .646
271 .301
34 .345
–362 .012
–288 .647
15 .077
1100
54 .993
310 .855
274 .664
39 .810
–361 .934
–281 .314
13 .358
1200
55 .564
315 .665
277 .882
45 .339
–361 .849
–273 .989
11 .926
1300
56 .033
320 .131
280 .963
50 .920
–361 .763
–266 .671
10 .715
1400
56 .426
324 .299
283 .911
56 .543
–361 .680
–259 .359
9 .677
1500
56 .759
328 .203
286 .735
62 .203
–361 .605
–252 .053
8 .777
77. SILICON Si (cr)
298 .15
19 .789
18 .810
18 .810
0 .000
0 .000
0 .000
0 .000
300
19 .855
18 .933
18 .810
0 .037
0 .000
0 .000
0 .000
400
22 .301
25 .023
19 .624
2 .160
0 .000
0 .000
0 .000
500
23 .610
30 .152
21 .231
4 .461
0 .000
0 .000
0 .000
600
24 .472
34 .537
23 .092
6 .867
0 .000
0 .000
0 .000
700
25 .124
38 .361
25 .006
9 .348
0 .000
0 .000
0 .000
800
25 .662
41 .752
26 .891
11 .888
0 .000
0 .000
0 .000
900
26 .135
44 .802
28 .715
14 .478
0 .000
0 .000
0 .000
1000
26 .568
47 .578
30 .464
17 .114
0 .000
0 .000
0 .000
1100
26 .974
50 .130
32 .138
19 .791
0 .000
0 .000
0 .000
1200
27 .362
52 .493
33 .737
22 .508
0 .000
0 .000
0 .000
1300
27 .737
54 .698
35 .265
25 .263
0 .000
0 .000
0 .000
1400
28 .103
56 .767
36 .728
28 .055
0 .000
0 .000
0 .000
1500
28 .462
58 .719
38 .130
30 .883
0 .000
0 .000
0 .000
78. SILICON Si (g)
298 .15
22 .251
167 .980
167 .980
0 .000
450 .000
405 .525
–71 .045
300
22 .234
168 .117
167 .980
0 .041
450 .004
405 .249
–70 .559
400
21 .613
174 .416
168 .843
2 .229
450 .070
390 .312
–50 .969
500
21 .316
179 .204
170 .456
4 .374
449 .913
375 .388
–39 .216
600
21 .153
183 .074
172 .246
6 .497
449 .630
360 .508
–31 .385
700
21 .057
186 .327
174 .032
8 .607
449 .259
345 .682
–25 .795
800
21 .000
189 .135
175 .748
10 .709
448 .821
330 .915
–21 .606
900
20 .971
191 .606
177 .375
12 .808
448 .329
316 .205
–18 .352
1000
20 .968
193 .815
178 .911
14 .904
447 .791
301 .553
–15 .751
1100
20 .989
195 .815
180 .358
17 .002
447 .211
286 .957
–13 .626
1200
21 .033
197 .643
181 .723
19 .103
446 .595
272 .416
–11 .858
1300
21 .099
199 .329
183 .014
21 .209
445 .946
257 .927
–10 .364
1400
21 .183
200 .895
184 .236
23 .323
445 .268
243 .489
–9 .085
1500
21 .282
202 .360
185 .396
25 .446
444 .563
229 .101
–7 .978
79. SILICON DIOXIDE SiO
2
(cr)
298 .15
44 .602
41 .460
41 .460
0 .000
–910 .700
–856 .288
150 .016
300
44 .712
41 .736
41 .461
0 .083
–910 .708
–855 .951
149 .032
400
53 .477
55 .744
43 .311
4 .973
–910 .912
–837 .651
109 .385
500
60 .533
68 .505
47 .094
10 .705
–910 .540
–819 .369
85 .598
600
64 .452
79 .919
51 .633
16 .971
–909 .841
–801 .197
69 .749
700
68 .234
90 .114
56 .414
23 .590
–908 .958
–783 .157
58 .439
800
76 .224
99 .674
61 .226
30 .758
–907 .668
–765 .265
49 .966
848
82 .967
104 .298
63 .533
34 .569
–906 .310
–756 .747
46 .613
PHASE TRANSITION: ∆
trs
H = 0.411 kJ/mol, ∆
trs
S = 0.484 J/K
.
mol, crII–crII′
848
67 .446
104 .782
63 .532
34 .980
–906 .310
–756 .747
46 .613
900
67 .953
108 .811
66 .033
38 .500
–905 .922
–747 .587
43 .388
1000
68 .941
116 .021
70 .676
45 .345
–905 .176
–730 .034
38 .133
1100
69 .940
122 .639
75 .104
52 .289
–904 .420
–712 .557
33 .836
1200
70 .947
128 .768
79 .323
59 .333
–901 .382
–695 .148
30 .259
5-64
Thermodynamic Properties as a Function of Temperature
487_S05.indb 64
3/14/06 2:39:39 PM
J/K
.
mol
kJ/mol
T/K
C°
p
S°
–(G°–H° (T
r
))/T
H°–H° (T
r
)
∆
f
H°
∆
f
G°
log K
f
PHASE TRANSITION: ∆
trs
H = 2.261 kJ/mol, ∆
trs
S = 1.883 J/K
.
mol, crII′–crI
1200
71 .199
130 .651
79 .323
61 .594
–901 .382
–695 .148
30 .259
1300
71 .743
136 .372
83 .494
68 .742
–900 .574
–677 .994
27 .242
1400
72 .249
141 .707
87 .463
75 .941
–899 .782
–660 .903
24 .658
1500
72 .739
146 .709
91 .248
83 .191
–899 .004
–643 .867
22 .421
80. SILICON TETRACHLORIDE SiCl
4
(g)
298 .15
90 .404
331 .446
331 .446
0 .000
–662 .200
–622 .390
109 .039
300
90 .562
332 .006
331 .448
0 .167
–662 .195
–622 .143
108 .323
400
96 .893
359 .019
335 .088
9 .572
–661 .853
–608 .841
79 .505
500
100 .449
381 .058
342 .147
19 .456
–661 .413
–595 .637
62 .225
600
102 .587
399 .576
350 .216
29 .616
–660 .924
–582 .527
50 .713
700
103 .954
415 .500
358 .432
39 .948
–660 .417
–569 .501
42 .496
800
104 .875
429 .445
366 .455
50 .392
–659 .912
–556 .548
36 .338
900
105 .523
441 .837
374 .155
60 .914
–659 .422
–543 .657
31 .553
1000
105 .995
452 .981
381 .490
71 .491
–658 .954
–530 .819
27 .727
1100
106 .349
463 .101
388 .456
82 .109
–658 .515
–518 .027
24 .599
1200
106 .620
472 .366
395 .068
92 .758
–658 .107
–505 .274
21 .994
1300
106 .834
480 .909
401 .347
103 .431
–657 .735
–492 .553
19 .791
1400
107 .003
488 .833
407 .316
114 .123
–657 .400
–479 .860
17 .904
1500
107 .141
496 .220
413 .000
124 .830
–657 .104
–467 .189
16 .269
Thermodynamic Properties as a Function of Temperature
5-65
487_S05.indb 65
3/14/06 2:39:40 PM